mhurhangee/patent-ind-claim-en huggingface dataset:
Fluid pump comprising: a hollow body in which a stator and an external rotor of an electric motor are mounted, said external rotor being rotatably mounted about a main axis (X-X) and having an internal cavity connected to an inlet port and an outlet port arranged to allow the inflow of a fluid into said internal cavity and the outflow of said fluid from said internal cavity , respectively; an internal rotor rotatably mounted in the internal cavity so as to be free to rotate about a secondary axis (Y-Y); a vane having a first end and a second end, wherein said first end is provided at a pivot ; slidingly guided in a slot formed in the internal rotor , said vane having a pivot at its first end; said internal rotor and said vane cooperating in such a way as to divide in a cyclic and fluid-tight manner said internal cavity at least into a first chamber with variable volume and a second chamber with variable volume, said first and second chambers communicating with said inlet port and said outlet port , respectively; characterized in that - said pivot is oscillatably mounted in the external rotor so that the external rotor , by rotating about its main axis (X-X), entrains in its movement said pivot of the vane and the internal rotor , which is brought into rotation by the vane and rotates idly about its secondary axis (Y-Y), and in that - said vane is slidably guided in a first slot provided in the internal rotor and passing through the internal rotor in a through manner. a hollow body in which a stator and an external rotor of an electric motor are mounted, said external rotor being rotatably mounted about a main axis (X-X) and having an internal cavity connected to an inlet port and an outlet port arranged to allow the inflow of a fluid into said internal cavity and the outflow of said fluid from said internal cavity , respectively; an internal rotor rotatably mounted in the internal cavity so as to be free to rotate about a secondary axis (Y-Y); a vane having a first end and a second end, wherein said first end is provided at a pivot ; slidingly guided in a slot formed in the internal rotor , said vane having a pivot at its first end; said internal rotor and said vane cooperating in such a way as to divide in a cyclic and fluid-tight manner said internal cavity at least into a first chamber with variable volume and a second chamber with variable volume, said first and second chambers communicating with said inlet port and said outlet port , respectively; - said pivot is oscillatably mounted in the external rotor so that the external rotor , by rotating about its main axis (X-X), entrains in its movement said pivot of the vane and the internal rotor , which is brought into rotation by the vane and rotates idly about its secondary axis (Y-Y), and in that - said vane is slidably guided in a first slot provided in the internal rotor and passing through the internal rotor in a through manner.
Module for the construction of a wall panel, comprising a substructure with adjustable supports (2.3), wherein the substructure can be attached to a wall (R) of a room by means of the supports (2.3), which are adjustable with respect to the distance from a wall (R) of a room, wherein the substructure has at least two upright profiles (2.1), which rest on the floor by means of a height-adjustable foot (2.6), and a panel , which can be hung by means of mounting elements (1.1) on the substructure , wherein the substructure has an attachment strut (2.2) between upright profiles (2.1) spaced apart and the supports (2.3) are fastened, spaced apart, to the attachment strut (2.2), and wherein at least one of the two upright profiles (2.1) can be attached to the wall (R) of the room by means of at least one support (2.3).
A method for preparing a super absorbent polymer comprising the steps of: crosslinking a water-soluble ethylenically unsaturated monomer having an acidic group in which at least a part thereof is neutralized in the presence of an internal crosslinking agent to form a hydrogel polymer containing a first crosslinked polymer; drying, pulverizing and classifying the hydrogel polymer to form a base polymer power; and heat-treating and surface-crosslinking the base polymer powder in the presence of a surface crosslinking solution to form a super absorbent polymer particle, wherein the surface crosslinking solution contains a compound having two or more epoxy rings and a compound having two or more hydroxy groups in a weight ratio of 1:1 to 1:3, and the surface crosslinking solution contains water in an amount of 0.5 to 10 parts by weight based on 100 parts by weight of the base polymer powder; characterized in that the surface crosslinking solution further contains a thickener. crosslinking a water-soluble ethylenically unsaturated monomer having an acidic group in which at least a part thereof is neutralized in the presence of an internal crosslinking agent to form a hydrogel polymer containing a first crosslinked polymer; drying, pulverizing and classifying the hydrogel polymer to form a base polymer power; and heat-treating and surface-crosslinking the base polymer powder in the presence of a surface crosslinking solution to form a super absorbent polymer particle, wherein the surface crosslinking solution contains a compound having two or more epoxy rings and a compound having two or more hydroxy groups in a weight ratio of 1:1 to 1:3, and the surface crosslinking solution contains water in an amount of 0.5 to 10 parts by weight based on 100 parts by weight of the base polymer powder; characterized in that the surface crosslinking solution further contains a thickener.
A method of controlling and enhancing the nucleation of product in a freeze dryer, comprising: maintaining the product at a predetermined temperature and pressure in a product chamber of the freeze dryer; creating a predetermined volume of condensed frost on an inner surface of a condensing chamber separate from the product chamber, wherein the condensing chamber is connected with the product chamber by a vapor port, a predetermined moisturized back fill gas is introduced into the condensing chamber to produce the condensed frost while the condensing chamber is at atmospheric pressure; and when the pressure in the condensing chamber has a predetermined pressure that is greater than that of the product chamber, creating gas turbulence that breaks down the condensed frost into ice crystals that rapidly enter the product chamber for even distribution therein to create uniform and rapid nucleation of the product in different areas of the product chamber. maintaining the product at a predetermined temperature and pressure in a product chamber of the freeze dryer; creating a predetermined volume of condensed frost on an inner surface of a condensing chamber separate from the product chamber, wherein the condensing chamber is connected with the product chamber by a vapor port, a predetermined moisturized back fill gas is introduced into the condensing chamber to produce the condensed frost while the condensing chamber is at atmospheric pressure; and when the pressure in the condensing chamber has a predetermined pressure that is greater than that of the product chamber, creating gas turbulence that breaks down the condensed frost into ice crystals that rapidly enter the product chamber for even distribution therein to create uniform and rapid nucleation of the product in different areas of the product chamber.
A system for determining stenosis severity in a subject's vasculature using multi-energy computer tomography, MECT, imaging, the system comprising: an input configured to receive MECT data acquired using a CT system; a processor programmed to: perform a material decomposition process on received MECT data to generate one or more material density maps; select , using the one or more material density maps, a first region of interest, ROI, encompassing a vessel cross-section at a site with stenosis and a second ROI encompassing a vessel cross-section at a site without stenosis; measure an iodine content in the first ROI and the second ROI; calculate a ratio of iodine content between the first ROI and the second ROI; determine a stenosis severity based on the calculated ratio of iodine content; generate a report indicating the stenosis severity associated with the subject's vasculature; and an output for displaying the report. an input configured to receive MECT data acquired using a CT system; a processor programmed to: perform a material decomposition process on received MECT data to generate one or more material density maps; select , using the one or more material density maps, a first region of interest, ROI, encompassing a vessel cross-section at a site with stenosis and a second ROI encompassing a vessel cross-section at a site without stenosis; measure an iodine content in the first ROI and the second ROI; calculate a ratio of iodine content between the first ROI and the second ROI; determine a stenosis severity based on the calculated ratio of iodine content; generate a report indicating the stenosis severity associated with the subject's vasculature; and perform a material decomposition process on received MECT data to generate one or more material density maps; select , using the one or more material density maps, a first region of interest, ROI, encompassing a vessel cross-section at a site with stenosis and a second ROI encompassing a vessel cross-section at a site without stenosis; measure an iodine content in the first ROI and the second ROI; calculate a ratio of iodine content between the first ROI and the second ROI; determine a stenosis severity based on the calculated ratio of iodine content; generate a report indicating the stenosis severity associated with the subject's vasculature; and an output for displaying the report.
An image processing method comprising the steps of: - providing an image (IM) captured by a capturing device and depicting at least part of an object (OB), and providing a coordinate system in relation to the image, - providing a gravity vector in the coordinate system, and - computing image data of at least one part of the image (IM) by filtering the at least one part of the image based on a kernel aligned based on the gravity vector, - determining a position and orientation of the device (D) associated with the capturing device based on the image data. - providing an image (IM) captured by a capturing device and depicting at least part of an object (OB), and providing a coordinate system in relation to the image, - providing a gravity vector in the coordinate system, and - computing image data of at least one part of the image (IM) by filtering the at least one part of the image based on a kernel aligned based on the gravity vector, - determining a position and orientation of the device (D) associated with the capturing device based on the image data.
A network device comprising a network processor, NP , and a central processing unit, CPU , wherein the network device is an edge router, wherein: • the NP is configured to: ∘ receive a first packet, and obtain a packet feature of the first packet; ∘ obtain a processing rule corresponding to the packet feature, wherein the processing rule is reporting the packet feature to the CPU; ∘ process the first packet based on the processing rule, to obtain a second packet by adding a first extension header to the first packet, wherein the first extension header comprises the packet feature; and ∘ send the second packet to the CPU ; • the CPU is configured to: o receive the second packet, and process the second packet, wherein the processing the second packet comprises the steps of: ▪ obtaining the packet feature from the first extension header of the second packet; ▪ deleting the first extension header from the second packet, to obtain the first packet; and ▪ forwarding the first packet based on the packet feature. • the NP is configured to: ∘ receive a first packet, and obtain a packet feature of the first packet; ∘ obtain a processing rule corresponding to the packet feature, wherein the processing rule is reporting the packet feature to the CPU; ∘ process the first packet based on the processing rule, to obtain a second packet by adding a first extension header to the first packet, wherein the first extension header comprises the packet feature; and ∘ send the second packet to the CPU ; ∘ receive a first packet, and obtain a packet feature of the first packet; ∘ obtain a processing rule corresponding to the packet feature, wherein the processing rule is reporting the packet feature to the CPU; ∘ process the first packet based on the processing rule, to obtain a second packet by adding a first extension header to the first packet, wherein the first extension header comprises the packet feature; and ∘ send the second packet to the CPU ; • the CPU is configured to: o receive the second packet, and process the second packet, wherein the processing the second packet comprises the steps of: ▪ obtaining the packet feature from the first extension header of the second packet; ▪ deleting the first extension header from the second packet, to obtain the first packet; and ▪ forwarding the first packet based on the packet feature. o receive the second packet, and process the second packet, wherein the processing the second packet comprises the steps of: ▪ obtaining the packet feature from the first extension header of the second packet; ▪ deleting the first extension header from the second packet, to obtain the first packet; and ▪ forwarding the first packet based on the packet feature. ▪ obtaining the packet feature from the first extension header of the second packet; ▪ deleting the first extension header from the second packet, to obtain the first packet; and ▪ forwarding the first packet based on the packet feature.
A method for producing a cell chip or three-dimensional tissue chip by using a micro-applicator provided with an application unit including an application liquid container having an application liquid reservoir for storing a cell-containing solution in a prescribed amount and an application needle allowing for penetration through the application liquid reservoir having the cell-containing solution stored, the method comprising: a waiting step of making a tip of the application needle dipped into the cell-containing solution having been charged in the application liquid reservoir; a descending step of making the tip of the application needle penetrate through the application liquid reservoir to move downward the cell-containing solution-attached tip of the application needle; an application step of bringing the cell-containing solution-attached tip of the application needle into contact with an application target, thereby applying the cell-containing solution to the application target to form a liquid droplet spot; and a holding step of lifting the tip of the application needle and holding the tip of the application needle in the application liquid reservoir. a waiting step of making a tip of the application needle dipped into the cell-containing solution having been charged in the application liquid reservoir; a descending step of making the tip of the application needle penetrate through the application liquid reservoir to move downward the cell-containing solution-attached tip of the application needle; an application step of bringing the cell-containing solution-attached tip of the application needle into contact with an application target, thereby applying the cell-containing solution to the application target to form a liquid droplet spot; and a holding step of lifting the tip of the application needle and holding the tip of the application needle in the application liquid reservoir.
A method for storing data in a distributed storage system including multiple nodes (121, 122, 123, ...) that collectively manage data storage, the method comprising: receiving first data at a first node in the distributed storage system, the first data to be stored in a first repository coupled with the first node through a data storage control logic , the first repository including a non-volatile cache storage resource (181-1) and a non-volatile non-cache storage resource (181-2); producing first metadata (M1) based on the first data; and providing notification of the first data and the first metadata to the data storage control logic , the first metadata controlling storage of the first data in the first repository at the first node; characterized by receiving second data at the first node, the second data being a replica of data stored at a second repository coupled with a second node from among the multiple nodes included in the distributed storage system; producing second metadata (M2), the second metadata indicating to the data storage control logic of the first node to bypass storage of the received second data in the non-volatile cache storage resource and store the received second data in the non-volatile non-cache storage resource; and forwarding the second data and the second metadata to the data storage control logic of the first node. receiving first data at a first node in the distributed storage system, the first data to be stored in a first repository coupled with the first node through a data storage control logic , the first repository including a non-volatile cache storage resource (181-1) and a non-volatile non-cache storage resource (181-2); producing first metadata (M1) based on the first data; and providing notification of the first data and the first metadata to the data storage control logic , the first metadata controlling storage of the first data in the first repository at the first node; characterized by receiving second data at the first node, the second data being a replica of data stored at a second repository coupled with a second node from among the multiple nodes included in the distributed storage system; producing second metadata (M2), the second metadata indicating to the data storage control logic of the first node to bypass storage of the received second data in the non-volatile cache storage resource and store the received second data in the non-volatile non-cache storage resource; and forwarding the second data and the second metadata to the data storage control logic of the first node.
A system for monitoring the condition of a tread of a tyre for vehicles, comprising: a sensor associated to at least a portion of said tread and consisting of extrinsically conductive polymers (ECP); a supply system of electric current, able to provide electrical energy to said sensor; means for reading data of electrical resistance by said sensor by, and for their transmission to said central unit a data processing central unit (UCE); characterized in that said means for reading data are means able to continuously reading the variation of electrical resistance picked up by said sensor which gives a measurement of the wear of the surface layers in which the sensor is arranged, set of algorithms for the interpretation of said measured variations of electrical resistance by comparison with a reference data of electrical resistance corresponding to a normal condition of said tread, at the aim of identifying and quantifying a condition of wear of said tread. a sensor associated to at least a portion of said tread and consisting of extrinsically conductive polymers (ECP); a supply system of electric current, able to provide electrical energy to said sensor; means for reading data of electrical resistance by said sensor by, and for their transmission to said central unit a data processing central unit (UCE); characterized in that said means for reading data are means able to continuously reading the variation of electrical resistance picked up by said sensor which gives a measurement of the wear of the surface layers in which the sensor is arranged, set of algorithms for the interpretation of said measured variations of electrical resistance by comparison with a reference data of electrical resistance corresponding to a normal condition of said tread, at the aim of identifying and quantifying a condition of wear of said tread.
A method of wireless communication, comprising: receiving , by a user equipment, UE , a first encoded information block including a first bit pattern; receiving , by the UE , a second encoded information block including a second bit pattern; selecting, by the UE , a subset of a plurality of bit-change patterns from a plurality of bit-change patterns based on a probability of occurrence associated with each of the plurality of bit-change patterns, wherein the bit-change patterns are selected which have the highest probability of occurrence; and jointly decoding , by the UE , the first encoded information block and the second encoded information block based on an assumption that a difference between the first bit pattern and the second bit pattern is within the subset of the plurality of bit-change patterns. receiving , by a user equipment, UE , a first encoded information block including a first bit pattern; receiving , by the UE , a second encoded information block including a second bit pattern; selecting, by the UE , a subset of a plurality of bit-change patterns from a plurality of bit-change patterns based on a probability of occurrence associated with each of the plurality of bit-change patterns, wherein the bit-change patterns are selected which have the highest probability of occurrence; and jointly decoding , by the UE , the first encoded information block and the second encoded information block based on an assumption that a difference between the first bit pattern and the second bit pattern is within the subset of the plurality of bit-change patterns.
A push-button assembly incorporated into an alarm station, the station including a supporting gang box and back plate containing a switch box and switches, said assembly comprising: a body adapted to being mounted to the back plate , said body incorporating an axially displaceable push button with an inwardly displaceable stem terminating in an actuator base , said actuator base adapted to being engaged through an aperture in said back plate and into contact with the switch box ; and a reset ring rotatably supported within said body and surrounding said actuator base , said ring being repositionable in order to accommodate multi-variant reconfiguration of said body to vary a resetting operation of said push button following initial depressing of the same and in which a coil spring secured to an underside of said push button outwardly biases said push button to an outwardly displaced reset position, said resetting operations including at least one of a momentary push to reset and a delayed resetting of said push button . a body adapted to being mounted to the back plate , said body incorporating an axially displaceable push button with an inwardly displaceable stem terminating in an actuator base , said actuator base adapted to being engaged through an aperture in said back plate and into contact with the switch box ; and a reset ring rotatably supported within said body and surrounding said actuator base , said ring being repositionable in order to accommodate multi-variant reconfiguration of said body to vary a resetting operation of said push button following initial depressing of the same and in which a coil spring secured to an underside of said push button outwardly biases said push button to an outwardly displaced reset position, said resetting operations including at least one of a momentary push to reset and a delayed resetting of said push button .