mhurhangee/patent-ind-claim-en huggingface dataset:
A grate block for a combustion grate in which sequential grate blocks are arranged one above the other in a step-like manner and are configured so as to rearrange and convey the combustion material during combustion by means of pushing movements which are carried out relative to each other, wherein the grate block comprises a block member which is formed as a cast component and which comprises an upper wall forming a support face that extends at least partially parallel with a longitudinal axis L of the block member and along which the combustion material is intended to be conveyed and a foremost end of the upper wall, when viewed in the pushing direction S, forms an edge via which the support face descends into a pushing face formed by a front wall , the front wall has at least one air supply opening in order to supply air to the combustion grate and is formed in the lowest region thereof in the form of a base which is intended to be positioned on the support face of a grate block which is adjacent in the pushing direction S, wherein at least the front support edge of the pushing face is arranged in a plane E which extends substantially perpendicularly to the longitudinal axis L, the air supply opening when viewed as a longitudinal section extends perpendicularly or obliquely with respect to the pushing face , characterized in that the edge is offset forward with respect to the plane E when viewed along the longitudinal axis L and in the pushing direction S, the upper wall and the front wall are formed in a thickened manner in the region in which they meet each other and the wall thickening is constructed in a curved manner when viewed as a longitudinal section.
Method for determining a parameter of an optical equipment , the method comprising: - an optical equipment positioning step, during which an optical equipment comprising a pair of optical lenses mounted on a spectacle frame is positioned in a first position, - a portable electronic device positioning step, during which a portable electronic device comprising an image acquisition module is positioned in a second position determined and/or known relatively to the first position, the portable electronic device further comprising a screen to show a pattern, - a light reflecting element positioning step, wherein a light reflecting element is positioned and configured to reflect the pattern displayed on the screen of the portable electronic device so that an image of the pattern is acquired by the image acquisition module of the portable electronic device through at least part of the optical lenses of the optical equipment and the pattern is deformed twice by the optical equipment, - a parameter determining step, during which at least one optical parameter of the optical equipment is determined based on the image of the pattern seen through at least part of the optical lenses of the optical equipment in the first position. - an optical equipment positioning step, during which an optical equipment comprising a pair of optical lenses mounted on a spectacle frame is positioned in a first position, - a portable electronic device positioning step, during which a portable electronic device comprising an image acquisition module is positioned in a second position determined and/or known relatively to the first position, the portable electronic device further comprising a screen to show a pattern, - a light reflecting element positioning step, wherein a light reflecting element is positioned and configured to reflect the pattern displayed on the screen of the portable electronic device so that an image of the pattern is acquired by the image acquisition module of the portable electronic device through at least part of the optical lenses of the optical equipment and the pattern is deformed twice by the optical equipment, - a parameter determining step, during which at least one optical parameter of the optical equipment is determined based on the image of the pattern seen through at least part of the optical lenses of the optical equipment in the first position.
A machine readable storage medium having instructions embodied thereon, the instructions being executed by one or more processors, comprising: providing , from a device configuration service (110, 210, 310, 410 510) that operates in a service provider environment , a list of hardware components that are available when designing a device ; receiving a selection of hardware components from the list of hardware components; receiving a device capability definition that defines a use case for the device; mapping dependencies between a plurality of code modules that are available when designing the device, in a dependency tree ; selecting code modules that depend on each other as indicated in the dependency tree; testing interfaces between the selected code modules that depend on each other as indicated in the dependency tree to ensure compatibility and usability between the dependent code modules; providing a list of code modules from the code modules that are compatible with each other and are compatible with selected hardware components, wherein each code module is linked to a corresponding hardware component; receiving a selection of code modules from the list of code modules, wherein the code modules enable the hardware components selected from the list of hardware components to operate in the device; providing the code modules for designing the device to a user computing device, wherein the user computing device generates a device image from the code modules and loads the device image onto the device; and installing the device image on the device. providing , from a device configuration service (110, 210, 310, 410 510) that operates in a service provider environment , a list of hardware components that are available when designing a device ; receiving a selection of hardware components from the list of hardware components; receiving a device capability definition that defines a use case for the device; mapping dependencies between a plurality of code modules that are available when designing the device, in a dependency tree ; selecting code modules that depend on each other as indicated in the dependency tree; testing interfaces between the selected code modules that depend on each other as indicated in the dependency tree to ensure compatibility and usability between the dependent code modules; providing a list of code modules from the code modules that are compatible with each other and are compatible with selected hardware components, wherein each code module is linked to a corresponding hardware component; receiving a selection of code modules from the list of code modules, wherein the code modules enable the hardware components selected from the list of hardware components to operate in the device; providing the code modules for designing the device to a user computing device, wherein the user computing device generates a device image from the code modules and loads the device image onto the device; and installing the device image on the device.
A fabric obtained by working yarn resulting from the twisting of a yarn of natural fibers, characterized in that said yarn of natural fibers are animal fibers other than silk twisted with a strand of silk and in that the percentage by weight of said strand of silk ranges from 2% to 20%; consequently, the percentage by weight of animal fibers ranges from 98% to the 80%.
A method of induced committed differentiation of human-induced pluripotent stem cells (hiPSCs) to Leydig cells (hiPS-hNCSCs-LCs), comprising: performing differentiation on the human-induced pluripotent stem cells (hiPSCs) to obtain human neural crest stem cells (hiPS-hNCSCs); performing differentiation on the human neural crest stem cells (hiPS-hNCSCs) obtained in the step to obtain the Leydig cells (hiPS-hNCSCs-LCs); wherein step comprises performing differentiation on the human induced pluripotent stem cells (hiPSCs) in a neural differentiation culture medium to obtain the human neural crest stem cells (hiPS-hNCSCs), and wherein step further comprises culturing the human induced pluripotent stem cells (hiPSCs) in the neural differentiation culture medium to form embryoid bodies, and then performing adherent culture with a neural crest stem cell culture medium. performing differentiation on the human-induced pluripotent stem cells (hiPSCs) to obtain human neural crest stem cells (hiPS-hNCSCs); performing differentiation on the human neural crest stem cells (hiPS-hNCSCs) obtained in the step to obtain the Leydig cells (hiPS-hNCSCs-LCs);
Well intervention apparatus comprising: a flexible hose to be lowered into a well, a stuffing seal which engages in a sealing manner around the hose during lowering or raising to seal the well environment from the outside environment, and a bottom hole assembly comprising a termination assembly for the hose and a plurality of tools provided at a downhole end portion of the hose, wherein the hose comprises a plurality of individual tubes extending along an inside region of the hose and connecting to the plurality of tools , each individual tube providing a fluid path for fluid communication between outside of the well and at least one tool inside the well, and each individual tube being laterally supported in said inside region such that its lateral movement is restricted, said bottom hole assembly having a sealing arrangement provided around the downhole end portion of the hose , and wherein the sealing arrangement comprises a seal provided around the downhole end portion of the hose and a pair of wedge members , each wedge member extending a circumferential distance around the hose, wherein the sealing arrangement is configured such that the wedge members compress the seal into sealing engagement with the hose. a flexible hose to be lowered into a well, a stuffing seal which engages in a sealing manner around the hose during lowering or raising to seal the well environment from the outside environment, and a bottom hole assembly comprising a termination assembly for the hose and a plurality of tools provided at a downhole end portion of the hose, wherein the hose comprises a plurality of individual tubes extending along an inside region of the hose and connecting to the plurality of tools , each individual tube providing a fluid path for fluid communication between outside of the well and at least one tool inside the well, and each individual tube being laterally supported in said inside region such that its lateral movement is restricted, said bottom hole assembly having a sealing arrangement provided around the downhole end portion of the hose , and wherein the sealing arrangement comprises a seal provided around the downhole end portion of the hose and a pair of wedge members , each wedge member extending a circumferential distance around the hose, wherein the sealing arrangement is configured such that the wedge members compress the seal into sealing engagement with the hose.
A method for intensifying the combustion of solid fuels using alkyl alcohol and Al-Ni catalyst as a combustion promoters, characterized in that an aqueous solution of alkyl alcohol, preferably isopropanol, in concentration of 10 wt.-% to 30 wt.-% is prepared in a buffer tank, then the nebulization tank is filled in a half of its volume and then, the homogenized aqueous suspension of Al-Ni catalyst is added, wherein said Al-Ni catalyst suspension is prepared so that the catalyst content is of no less than 0.046 g per 50 ml of water and in that no more than 0.85 g of Al-Ni catalyst in homogenized aqueous suspension is for every 1L of alkyl alcohol additive solution and the nebulization process is executed until pressure inside the nebulization tank reaches a value higher than pressure in a primary air duct, whereas the nebulization process is carried out in nebulization tank provided with ultrasonic transducers and a compressed air supply system is effected by acting on aqueous solution of alkyl alcohol additive with ultrasonic waves generated by ultrasonic transducers in power range of 10 to 120W and at a compressed air flow rate of up to 2480 l/h and then dispersion of the additive is dispensed continuously into the primary air duct with pulverized coal before the burner, in a temperature of solid fuel ranging from 90 to 160°C.
Pressure-reduction device for liquid and gaseous media, having a housing with an inlet and outlet , having a shut-off device and a pressure cartridge containing a cartridge housing , and having a slide sleeve , a slide , a main plate and a valve device , the latter comprising a valve seat , which is arranged on the slide , and a seal which is arranged on the main plate , wherein the shut-off device and the pressure cartridge are arranged coaxially, wherein, in the open state of the pressure-reduction device , the medium flows first of all through the shut-off device and then through the valve device of the pressure cartridge , characterized in that the shut-off device can be opened by means of the slide sleeve .
A method of manufacturing a wood board, comprising: - applying a binder composition, notably in the form of an aqueous solution, to loose wood matter to provide resinated loose wood matter, - arranging the resinated wood matter as a sheet of loosely arranged resinated wood matter; and - subjecting the sheet of loosely arranged resinated wood matter to heat and pressure to cure the binder composition and to form the wood board from the sheet of loosely arranged resinated wood; wherein the binder composition is a sugar-based binder composition which comprises: - polymerizable reactants, wherein at least 50% by dry weight of the polymerizable reactants comprise reactants selected from: i) one or more reducing sugar reactants; ii) one or more reactants which under curing conditions will generate one or more reducing sugar reactants; iii) curable reaction product(s) of one or more reducing sugar reactant(s); iv) reactants which under curing conditions will react with the one or more reducing sugar reactants; and v) combinations of the aforementioned reactants; - optional fillers, and - at least one further particulate additive selected from the group consisting of: - particulate additive(s) having a BET specific surface area which is ≥ 50 m 2 /g as measured in accordance with the ISO 9277 standard; - amorphous silica particles, notably synthetic amorphous silica particles; - fumed silica particles; and - untreated fumed silica particles. - applying a binder composition, notably in the form of an aqueous solution, to loose wood matter to provide resinated loose wood matter, - arranging the resinated wood matter as a sheet of loosely arranged resinated wood matter; and - subjecting the sheet of loosely arranged resinated wood matter to heat and pressure to cure the binder composition and to form the wood board from the sheet of loosely arranged resinated wood; - polymerizable reactants, wherein at least 50% by dry weight of the polymerizable reactants comprise reactants selected from: i) one or more reducing sugar reactants; ii) one or more reactants which under curing conditions will generate one or more reducing sugar reactants; iii) curable reaction product(s) of one or more reducing sugar reactant(s); iv) reactants which under curing conditions will react with the one or more reducing sugar reactants; and v) combinations of the aforementioned reactants; - optional fillers, and - at least one further particulate additive selected from the group consisting of: - particulate additive(s) having a BET specific surface area which is ≥ 50 m 2 /g as measured in accordance with the ISO 9277 standard; - amorphous silica particles, notably synthetic amorphous silica particles; - fumed silica particles; and - untreated fumed silica particles. - fumed silica particles; and - untreated fumed silica particles.
An energy measurement unit for use with an electric meter to measure energy consumed by a consumer load , wherein the electric meter comprises a measurement path coupled between a phase line input terminal and a phase line output terminal of the electric meter , and wherein the measurement path comprises a current sensor for use in measuring electrical energy consumption and wherein the measurement path further comprises a switch in series with the current sensor, the energy measurement unit being configured to: measure, using the current sensor , a meter current flowing through the measurement path; measure a voltage between the phase line input terminal and the phase line output terminal; measure an apparent impedance of the current sensor ; determine an impedance of the switch based on the meter current, a known impedance of the current sensor , and the voltage between the phase line input terminal and the phase line output terminal; determine a bypass impedance between the phase line input terminal and the phase line output terminal, in parallel with the measurement path , wherein the bypass impedance is determined based at least in part on the apparent impedance of the current sensor , the known impedance of the current sensor and the impedance of the switch; determine a bypass current flowing between the phase line input terminal and the phase line output terminal, in parallel with the measurement path , based at least in part on the determined bypass impedance and the voltage between the phase line input terminal and the phase line output terminal; and determine the energy consumed by the consumer load based at least in part on the meter current and the bypass current. measure, using the current sensor , a meter current flowing through the measurement path; measure a voltage between the phase line input terminal and the phase line output terminal; measure an apparent impedance of the current sensor ; determine an impedance of the switch based on the meter current, a known impedance of the current sensor , and the voltage between the phase line input terminal and the phase line output terminal; determine a bypass impedance between the phase line input terminal and the phase line output terminal, in parallel with the measurement path , wherein the bypass impedance is determined based at least in part on the apparent impedance of the current sensor , the known impedance of the current sensor and the impedance of the switch; determine a bypass current flowing between the phase line input terminal and the phase line output terminal, in parallel with the measurement path , based at least in part on the determined bypass impedance and the voltage between the phase line input terminal and the phase line output terminal; and determine the energy consumed by the consumer load based at least in part on the meter current and the bypass current.
A combination comprising a therapeutically effective amount of an antibody that binds BCMA and a therapeutically effective amount of an antibody that binds PD1 wherein the antibody that binds BCMA is conjugated to a cytotoxic agent as an immunoconjugate.
A computer implemented method for determining a configuration of a medical robotic arm , wherein the configuration comprises a pose of the robotic arm and a position of a base of the robotic arm , comprising the steps of: - acquiring changed environment data including information about the beginning of a new workflow step of a workflow which uses the robotic arm , wherein each workflow step has associated therewith workflow step constraint information data representing at least one of positions of people involved in a treatment, information about equipment used in the workflow step and tasks to be performed in the workflow step; - transforming workflow step constraint information data associated with the new workflow step into spatial constraint data representing spatial constraints for the configuration of the robotic arm in terms of a plurality of areas in space into which the robotic arm should not enter; - calculating an overall spatial area from the plurality of areas; and - calculating the configuration of the robotic arm based on the overall spatial area. - acquiring changed environment data including information about the beginning of a new workflow step of a workflow which uses the robotic arm , wherein each workflow step has associated therewith workflow step constraint information data representing at least one of positions of people involved in a treatment, information about equipment used in the workflow step and tasks to be performed in the workflow step; - transforming workflow step constraint information data associated with the new workflow step into spatial constraint data representing spatial constraints for the configuration of the robotic arm in terms of a plurality of areas in space into which the robotic arm should not enter; - calculating an overall spatial area from the plurality of areas; and - calculating the configuration of the robotic arm based on the overall spatial area.
A rubber composition for a tire comprising: a rubber component comprising a butadiene-based rubber, a modified liquid butadiene-based rubber, a hydrogenated thermoplastic elastomer, and a silica.
Process for manufacturing a fluid tight laminate of composite material on a tank, vessel or tube for storage, transport or transfer of a cryogenic fluid, the process comprises the steps of: (a) adhering tapes or sheets of a composite material to an inside wall of the tank, vessel or tube to form a first layer of adjacent tapes or sheets on the inside wall of the tank, vessel or tube; (b) adhering to the first layer of adjacent tapes or sheets as formed in step (a) tapes or sheets of a composite material to form a second layer of tapes or sheets on the inside wall of the tank, vessel or tube, whereby the tapes or sheets of the second layer are arranged so as to overlap the edge interface between any two adjacent tapes or sheets of the first layer of tapes or sheets formed in step (a); and wherein the composite material comprises a matrix of a thermoplastic material and an oriented thermoplastic material which is incorporated into the matrix of the thermoplastic material, wherein the adhering of the tapes or sheets in step (b) is done under the application of a laser beam to heat and adhere the tapes or sheets as used in step (b) to the first layer of tapes or sheets as formed in step (a), wherein both the upper surface of the tapes or sheets which form the first layer in step (a) and the bottom surface of the sheets as used in step (b) are heated by the laser beam at or near the location where the tapes or sheets as used in step (b) are adhered to the first layer formed in step (a), wherein the width of the overlap on each side of the edge interface between each two adjacent tapes or sheets of composite material in the first layer is of the same size. (a) adhering tapes or sheets of a composite material to an inside wall of the tank, vessel or tube to form a first layer of adjacent tapes or sheets on the inside wall of the tank, vessel or tube; (b) adhering to the first layer of adjacent tapes or sheets as formed in step (a) tapes or sheets of a composite material to form a second layer of tapes or sheets on the inside wall of the tank, vessel or tube, whereby the tapes or sheets of the second layer are arranged so as to overlap the edge interface between any two adjacent tapes or sheets of the first layer of tapes or sheets formed in step (a); and wherein the composite material comprises a matrix of a thermoplastic material and an oriented thermoplastic material which is incorporated into the matrix of the thermoplastic material, wherein the adhering of the tapes or sheets in step (b) is done under the application of a laser beam to heat and adhere the tapes or sheets as used in step (b) to the first layer of tapes or sheets as formed in step (a), wherein both the upper surface of the tapes or sheets which form the first layer in step (a) and the bottom surface of the sheets as used in step (b) are heated by the laser beam at or near the location where the tapes or sheets as used in step (b) are adhered to the first layer formed in step (a), wherein the width of the overlap on each side of the edge interface between each two adjacent tapes or sheets of composite material in the first layer is of the same size.