mhurhangee/ep-ind-claims huggingface dataset:
A nut milk making system, comprising: a blending device capable of blending a quantity of nuts with a quantity of a liquid to break down the quantity of nuts into pieces to generate a blended product; a porous vessel defining an opening and configured to strain the blended product so that when the blended product is introduced into the opening, at least part of a solid fraction of the blended product remains within the porous vessel, and at least part of a liquid fraction of the blended product passes through the porous vessel which is collected as a filtered or strained product; and a non-porous vessel configured to receive at least part of the porous vessel therein and further configured to receive the filtered or strained product; wherein the non-porous vessel is configured to be coupled to or in communication with a liquid receptacle; and a vacuum apparatus, wherein when the vacuum apparatus in communication with the non-porous vessel and a liquid receptacle adjacent to the non-porous vessel is operated, vacuum is created and causes the filtered or strained product to transfer from the non-porous vessel to the liquid receptacle. a blending device capable of blending a quantity of nuts with a quantity of a liquid to break down the quantity of nuts into pieces to generate a blended product; a porous vessel defining an opening and configured to strain the blended product so that when the blended product is introduced into the opening, at least part of a solid fraction of the blended product remains within the porous vessel, and at least part of a liquid fraction of the blended product passes through the porous vessel which is collected as a filtered or strained product; and a non-porous vessel configured to receive at least part of the porous vessel therein and further configured to receive the filtered or strained product; wherein the non-porous vessel is configured to be coupled to or in communication with a liquid receptacle; and a vacuum apparatus, wherein when the vacuum apparatus in communication with the non-porous vessel and a liquid receptacle adjacent to the non-porous vessel is operated, vacuum is created and causes the filtered or strained product to transfer from the non-porous vessel to the liquid receptacle.
Screw-spindle pump having at least two screw spindles (2, 4), which comprise a drive spindle and a running spindle which runs oppositely with respect to the drive spindle, and a pump housing for receiving the two screw spindles (2, 4), wherein the two screw spindles (2, 4) form, together with at least the pump housing, delivery chambers, which move from a suction side to a pressure side of the pump as a consequence of a rotation of the screw spindles (2, 4), wherein the pump housing has a first abutment for the drive spindle and a second abutment for the running spindle, wherein at least one of the two abutments (16, 18) is set at an angle (α 1, α 2) with respect to a first plane (X - Z) of the pump in order to counteract operationally induced crossing of the two spindles (2, 4), characterized in that - the pump housing has at least one insert means (16, 18) which functions as an abutment element for the screw spindles (2, 4) and which has the first abutment and the second abutment and against which the screw spindles (2, 4) are supported, - and in that the insert means (16, 18) is provided with a peripheral shoulder for axial fixing with respect to the pump housing, and/or in that the insert means (16, 18) is provided with shaped elements for tangential fixing with respect to the pump housing. at least two screw spindles (2, 4), which comprise a drive spindle and a running spindle which runs oppositely with respect to the drive spindle, and a pump housing for receiving the two screw spindles (2, 4), wherein the two screw spindles (2, 4) form, together with at least the pump housing, delivery chambers, which move from a suction side to a pressure side of the pump as a consequence of a rotation of the screw spindles (2, 4), wherein the pump housing has a first abutment for the drive spindle and a second abutment for the running spindle, wherein at least one of the two abutments (16, 18) is set at an angle (α 1, α 2) with respect to a first plane (X - Z) of the pump in order to counteract operationally induced crossing of the two spindles (2, 4), characterized in that - the pump housing has at least one insert means (16, 18) which functions as an abutment element for the screw spindles (2, 4) and which has the first abutment and the second abutment and against which the screw spindles (2, 4) are supported, - and in that the insert means (16, 18) is provided with a peripheral shoulder for axial fixing with respect to the pump housing, and/or in that the insert means (16, 18) is provided with shaped elements for tangential fixing with respect to the pump housing. - the pump housing has at least one insert means (16, 18) which functions as an abutment element for the screw spindles (2, 4) and which has the first abutment and the second abutment and against which the screw spindles (2, 4) are supported, - and in that the insert means (16, 18) is provided with a peripheral shoulder for axial fixing with respect to the pump housing, and/or in that the insert means (16, 18) is provided with shaped elements for tangential fixing with respect to the pump housing.
Use of a food composition comprising galacto-oligosaccharides and collagen tripeptide for relieving skin wrinkles, wherein the galacto-oligosaccharides and the collagen tripeptide are present at a weight ratio of 1:3.
A wind turbine farm electrical control system (300,500) comprising: a plurality of wind turbine farm regulating devices (315,316,318, 320,322,515,516,518,326,526); at least one wind turbine farm control input device; at least one processor (302,304,504) operatively coupled with said wind turbine farm regulating device and said wind turbine farm control input device, said processor programmed with at least one algorithm representative of a relationship between at least one electric power grid tolerance range, including a voltage tolerance range and a power factor tolerance range, and an electric power generation rating, said at least one processor further programmed to generate at least one wind turbine farm tolerance adjustment signal for controlling a wind turbine farm voltage and/or power factor range; characterized in that at least one transformer tap changer (326,526) operatively coupled to said regulating devices (315,316,318,320,322,515,516,518) via an input adjustment channel (328,528) and operable to change a tap setting as a function of signals received from at least one of the regulating devices (315,316,318,320,322,515,516, 518) in order to change a secondary voltage and/or power factor induced on a breaker-side bus (240,440). a plurality of wind turbine farm regulating devices (315,316,318, 320,322,515,516,518,326,526); at least one wind turbine farm control input device; at least one processor (302,304,504) operatively coupled with said wind turbine farm regulating device and said wind turbine farm control input device, said processor programmed with at least one algorithm representative of a relationship between at least one electric power grid tolerance range, including a voltage tolerance range and a power factor tolerance range, and an electric power generation rating, said at least one processor further programmed to generate at least one wind turbine farm tolerance adjustment signal for controlling a wind turbine farm voltage and/or power factor range; characterized in that at least one transformer tap changer (326,526) operatively coupled to said regulating devices (315,316,318,320,322,515,516,518) via an input adjustment channel (328,528) and operable to change a tap setting as a function of signals received from at least one of the regulating devices (315,316,318,320,322,515,516, 518) in order to change a secondary voltage and/or power factor induced on a breaker-side bus (240,440).
A food product comprising: • from 30 to 85 wt% starch, • from 15 to 50 wt% of fat, wherein the total amount of salt, monosodium glutamate and sugar taken together is less than 15 wt% of the weight of the food product, wherein the product is in the form of a paste and wherein the product has a density of between 0.6 and 1 kg/I at 20 °C and wherein the product comprises from 10 to 40 % of gas, compared to an identical product without added gas, wherein the percentage of gas is calculated according to the formula, wherein an aerated (gas-containing) product and non-aerated product are compared in a respective cup of a certain fixed volume: percentage of gas = 100 − m 3 − m 1 / m 2 − m 1 / 100, wherein: m 1 = weight of the cup (g), m 2 = weight of the cup including the non-aerated product (g), m 3 = weight of the cup including the aerated product (g). • from 30 to 85 wt% starch, • from 15 to 50 wt% of fat, m 1 = weight of the cup (g), m 2 = weight of the cup including the non-aerated product (g), m 3 = weight of the cup including the aerated product (g).
A multi-component dye unit for use in a system to protect valuables contained in a secured container, comprising at least two reservoirs filled with different agents, a first agent A and a second agent B, and connected to at least one spraying device (5,5') for spraying said agents thereby staining the content of said secured container, wherein said at least two reservoirs (1,2) are arranged in an external container or housing (3,3'), wherein the first agent A is an ink comprising a dye and the second agent B is a glue or a polyurethane characterized in that the spraying device comprises two separate spraying devices (5,5') each connected to one different reservoir (1,2)
A communication device comprising: an interleaving unit (344; 444) configured to determine an interleaving length of transmit data to be transmitted through free-space optical communication, and interleave the transmit data based on the determined interleaving length; and a shaping unit (342; 442) configured to shape the interleaved transmit data based on a data format configured to make the interleaving length detectable on a receiving side of the free-space optical communication, characterized in that the interleaving unit (344; 444) is configured to determine the interleaving length based on information on a transmission path of the free-space optical communication used for transmitting the transmit data, wherein the information on the transmission path is information indicating, whether the free-space optical communication is: communication performed between a ground station and a satellite station, or communication performed between satellite stations, or communication performed between ground stations. an interleaving unit (344; 444) configured to determine an interleaving length of transmit data to be transmitted through free-space optical communication, and interleave the transmit data based on the determined interleaving length; and a shaping unit (342; 442) configured to shape the interleaved transmit data based on a data format configured to make the interleaving length detectable on a receiving side of the free-space optical communication, characterized in that the interleaving unit (344; 444) is configured to determine the interleaving length based on information on a transmission path of the free-space optical communication used for transmitting the transmit data, wherein the information on the transmission path is information indicating, whether the free-space optical communication is: communication performed between a ground station and a satellite station, or communication performed between satellite stations, or communication performed between ground stations. communication performed between a ground station and a satellite station, or communication performed between satellite stations, or communication performed between ground stations.
An agronomic product coated with a fertilizer product, the fertilizer product comprising a dry mixture of: about 1 part manganese; from 4 to 6 parts phosphate; and from 2 to 4 parts zinc, wherein each of said manganese, phosphate, and zinc has a particle size of from 44 μm to 149 μm. about 1 part manganese; from 4 to 6 parts phosphate; and from 2 to 4 parts zinc, wherein each of said manganese, phosphate, and zinc has a particle size of from 44 μm to 149 μm.
Vehicle panel handle for opening a panel of an automotive vehicle, the handle having a structure comprising: - a handle lever configured to rotate around a first rotation axis between a resting position wherein the panel is closed and an opening position wherein the panel is open, - a latch lever configured to rotate around a second rotation axis and to cooperate with the handle lever for opening the panel when the handle lever rotates around the first rotation axis for reaching the opening position, - a counter weight configured for preventing the unwilling rotation of the handle lever, the counter weight having an elongated shape and configured to rotate around a third rotation axis between an unblocking position wherein the latch lever is not prevented from rotating and a blocking position wherein the latch lever is preventing from rotating, wherein the second rotation axis is disposed between the first rotation axis and the third rotation axis, characterized in that the counterweight is configured to stay immobile relative to the handle lever in case of deformation of the structure due to an impact and to follow the deformation of the handle structure, such that the counterweight comes in the blocking position and prevents the rotation of the latch lever. - a handle lever configured to rotate around a first rotation axis between a resting position wherein the panel is closed and an opening position wherein the panel is open, - a latch lever configured to rotate around a second rotation axis and to cooperate with the handle lever for opening the panel when the handle lever rotates around the first rotation axis for reaching the opening position, - a counter weight configured for preventing the unwilling rotation of the handle lever, the counter weight having an elongated shape and configured to rotate around a third rotation axis between an unblocking position wherein the latch lever is not prevented from rotating and a blocking position wherein the latch lever is preventing from rotating,
A method for emulating a hypervisor and testing a hypervisor controller using the emulated hypervisor, the method comprising: at a computing platform configured to emulate a hypervisor by responding to hypervisor directed messages: receiving a request message from a hypervisor controller for creating a virtual machine, wherein the hypervisor controller is capable of sending one or more hypervisor directed messages for creating or modifying the VM; and in response to receiving the request message, creating an entry in a VM state data structure for representing an emulated VM associated with the emulated hypervisor, wherein the entry includes a VM identifier, a VM operating system identifier, a hypervisor identifier, and state information indicating that the VM has been created and responding to the request message using the state information indicating that the VM has been created, wherein the computing platform uses or modifies the entry in the VM state data structure when responding to a subsequent message directed to the emulated VM; testing the hypervisor controller by indicating a failure associated with the emulated VM; and monitoring the hypervisor controller to determine whether any mitigation actions were taken in response to the failure. receiving a request message from a hypervisor controller for creating a virtual machine, wherein the hypervisor controller is capable of sending one or more hypervisor directed messages for creating or modifying the VM; and in response to receiving the request message, creating an entry in a VM state data structure for representing an emulated VM associated with the emulated hypervisor, wherein the entry includes a VM identifier, a VM operating system identifier, a hypervisor identifier, and state information indicating that the VM has been created and responding to the request message using the state information indicating that the VM has been created, wherein the computing platform uses or modifies the entry in the VM state data structure when responding to a subsequent message directed to the emulated VM; testing the hypervisor controller by indicating a failure associated with the emulated VM; and monitoring the hypervisor controller to determine whether any mitigation actions were taken in response to the failure.
An air treatment apparatus comprising: a plurality of air treatment units, each air treatment unit comprising an air inlet and an air outlet, an air treatment device and connecting components; the air treatment device being located between the air inlet and the air outlet; the air treatment device within the air treatment unit comprising at least one of the following components: components for air purification and filtering, heating, dehumidifying, humidifying, air-cooling, and/or components of blow-through fan, a draw-through fan, or a pump; wherein said plurality of air treatment units is connected together by their connecting components to form an air treatment system; characterized in that the connecting components further comprise a transmitter and a receiver, the air treatment units being connected in a substantially non-contacting way; the air treatment units being able to operate in a first mode in which the air treatment units operate in coordination with one another together as a built system and a second mode in which the air treatment units operate alone individually as separate individual units, and wherein the air treatment units are configured to operate in the first mode and the second mode according to the results obtained from an environmental sensor; wherein said two modes of air treatment are adapted to give different efficiency and performance for improving indoor air quality. a plurality of air treatment units, each air treatment unit comprising an air inlet and an air outlet, an air treatment device and connecting components; the air treatment device being located between the air inlet and the air outlet; the air treatment device within the air treatment unit comprising at least one of the following components: components for air purification and filtering, heating, dehumidifying, humidifying, air-cooling, and/or components of blow-through fan, a draw-through fan, or a pump; wherein said plurality of air treatment units is connected together by their connecting components to form an air treatment system; characterized in that the connecting components further comprise a transmitter and a receiver, the air treatment units being connected in a substantially non-contacting way; the air treatment units being able to operate in a first mode in which the air treatment units operate in coordination with one another together as a built system and a second mode in which the air treatment units operate alone individually as separate individual units, and wherein the air treatment units are configured to operate in the first mode and the second mode according to the results obtained from an environmental sensor; wherein said two modes of air treatment are adapted to give different efficiency and performance for improving indoor air quality.
An apparatus for generating a manipulated time-domain signal for transmitting a plurality of data symbols, comprising: a modulation unit (110; 111; 305) for modulating the data symbols on one or more first subcarriers, wherein the modulation unit (110; 111; 305) is configured to not load the data symbols on one or more second subcarriers, wherein each of the one or more second subcarriers is different from each of the one or more first subcarriers, a transformation unit (120; 121; 360) for transforming the one or more first subcarriers and the one or more second subcarriers to a time-domain to obtain a transformed time-domain signal, and a manipulation module (130; 131; 365; 565) for invertibly modifying the transformed time-domain signal according to a first modification rule to obtain the manipulated time-domain signal, wherein the manipulation module (130; 131; 365; 565) is configured to invertibly modify the transformed time-domain signal according to the first modification rule by applying a permutation matrix, and wherein a number of said one or more first subcarriers is selected such that the signal at an input of the transformation unit (120; 121; 360) is made sparse. a modulation unit (110; 111; 305) for modulating the data symbols on one or more first subcarriers, wherein the modulation unit (110; 111; 305) is configured to not load the data symbols on one or more second subcarriers, wherein each of the one or more second subcarriers is different from each of the one or more first subcarriers, a transformation unit (120; 121; 360) for transforming the one or more first subcarriers and the one or more second subcarriers to a time-domain to obtain a transformed time-domain signal, and a manipulation module (130; 131; 365; 565) for invertibly modifying the transformed time-domain signal according to a first modification rule to obtain the manipulated time-domain signal, wherein the manipulation module (130; 131; 365; 565) is configured to invertibly modify the transformed time-domain signal according to the first modification rule by applying a permutation matrix, and wherein a number of said one or more first subcarriers is selected such that the signal at an input of the transformation unit (120; 121; 360) is made sparse.
A neural network processing element circuit (140, 450) for use in a neural network processor (60, 102) for performing neural network calculations for an artificial neural network having one or more network layers, the neural network processing element circuit comprising: one or more multipliers (142, 454), each multiplier operative to receive weight data (163, 470) from weight memory and input data (161, 468) from input memory and to generate a product therefrom; an adder (144, 458) operative to receive and sum said product and a current context (176, 493) to generate an updated context (151, 484) therefrom; a local memory (150, 460) coupled to said processing element circuit, coupled to said adder, and operative to store said updated context therein; and wherein said updated contexts are written to and read from individual storage locations in said local memory (150, 460) sequentially without random access to said individual storage locations. one or more multipliers (142, 454), each multiplier operative to receive weight data (163, 470) from weight memory and input data (161, 468) from input memory and to generate a product therefrom; an adder (144, 458) operative to receive and sum said product and a current context (176, 493) to generate an updated context (151, 484) therefrom; a local memory (150, 460) coupled to said processing element circuit, coupled to said adder, and operative to store said updated context therein; and wherein said updated contexts are written to and read from individual storage locations in said local memory (150, 460) sequentially without random access to said individual storage locations.