mhurhangee/patent-ind-claim-en huggingface dataset:
A food package comprising: a microcapillary sheet having a first end and a second end and opposing surfaces , the microcapillary sheet comprising (i) a matrix comprising a polymeric material, wherein the matrix does not absorb liquid; (ii) a plurality of channels disposed in parallel in the matrix and between the opposing surfaces , the channels extending from the first end to the second end ; characterized in that the microcapillary sheet further comprises (iii) a perforation traversing at least two channels , the perforation extending from one of the said opposing surfaces and through a wall of the at least two channels . (i) a matrix comprising a polymeric material, wherein the matrix does not absorb liquid; (ii) a plurality of channels disposed in parallel in the matrix and between the opposing surfaces , the channels extending from the first end to the second end ; characterized in that the microcapillary sheet further comprises (iii) a perforation traversing at least two channels , the perforation extending from one of the said opposing surfaces and through a wall of the at least two channels .
A wafer geometry measurement method comprising: obtaining geometry measurements of a three dimensional NAND structure utilizing an optical interferometry based wafer geometry measurement tool ; applying a multi-layer stack correction model to correct the geometry measurements obtained by the wafer geometry measurement tool from the three dimensional NAND structure, wherein the multi-layer stack correction model includes a simulated correction curve representing a correlation between a true thickness and a measured thickness, wherein the true thickness is a thickness derived from measurements obtained with non-interferometrical tools and the measured thickness is a thickness measurement obtained with optical interferometry tools, wherein the multi-layer stack correction model is configured to correct measurement errors in topographical data caused by a transparent film positioned on the three dimensional NAND structure based on reflectivity and phase change information measured from the transparent film ; and providing feedback and/or feedforward control signals to adjust one or more upstream or downstream process tools in a semiconductor fabrication facility based on the corrected geometry measurements. obtaining geometry measurements of a three dimensional NAND structure utilizing an optical interferometry based wafer geometry measurement tool ; applying a multi-layer stack correction model to correct the geometry measurements obtained by the wafer geometry measurement tool from the three dimensional NAND structure, wherein the multi-layer stack correction model includes a simulated correction curve representing a correlation between a true thickness and a measured thickness, wherein the true thickness is a thickness derived from measurements obtained with non-interferometrical tools and the measured thickness is a thickness measurement obtained with optical interferometry tools, wherein the multi-layer stack correction model is configured to correct measurement errors in topographical data caused by a transparent film positioned on the three dimensional NAND structure based on reflectivity and phase change information measured from the transparent film ; and providing feedback and/or feedforward control signals to adjust one or more upstream or downstream process tools in a semiconductor fabrication facility based on the corrected geometry measurements.
A method for inducing human hepatic differentiation comprising the steps of: (i) culturing a population of human pluripotent or multipotent cells on a support coated with human laminin in an endoderm induction medium to produce a population of human definitive endoderm (DE) cells, and wherein said method does not comprise the overexpression of homeobox transgene HEX in said population of cells. (i) culturing a population of human pluripotent or multipotent cells on a support coated with human laminin in an endoderm induction medium to produce a population of human definitive endoderm (DE) cells, and wherein said method does not comprise the overexpression of homeobox transgene HEX in said population of cells.
Printed circuit board for a power connector, this printed circuit board including a dielectric support in the form of a plate with two main faces and an edge face between the two main faces , a first and a second metal layers being rigidly connected to the dielectric support and running parallel to the main faces thereof, wherein a thermal conduction land (15 or 16, 17 or 18) is formed in each of the first and second metal layers, the respective thermal conduction lands (15 or 16, 17 or 18) of the first and second metal layers being electrically connected to one another at the site of a region of the edge face of the dielectric support , and wherein the second metal layer is arranged in the thickness of the dielectric support , including a temperature sensor mounted on one of its main faces , this main face being partially covered by the first metal layer , this sensor facing, through a thickness of the printed circuit board , the thermal conduction land formed in the second metal layer , the sensor being connected to at least one connection pad located on one of the main faces of the printed circuit board , characterized in that the connection pad is connected in turn, through a thickness of the dielectric support , to a connection land electrically connecting the connection pad to a measurement electrical circuit, the connection land being formed in the second metal layer , being electrically isolated from the thermal conduction lands of the first and second metal layers and being at least partially covered by the thermal conduction land of the first metal layer dielectric support in the form of a plate with two main faces and an edge face between the two main faces , a first and a second metal layers being rigidly connected to the dielectric support and running parallel to the main faces thereof, wherein a thermal conduction land (15 or 16, 17 or 18) is formed in each of the first and second metal layers, the respective thermal conduction lands (15 or 16, 17 or 18) of the first and second metal layers being electrically connected to one another at the site of a region of the edge face of the dielectric support , and wherein the second metal layer is arranged in the thickness of the dielectric support , including a temperature sensor mounted on one of its main faces , this main face being partially covered by the first metal layer , this sensor facing, through a thickness of the printed circuit board , the thermal conduction land formed in the second metal layer , the sensor being connected to at least one connection pad located on one of the main faces of the printed circuit board , characterized in that the connection pad is connected in turn, through a thickness of the dielectric support , to a connection land electrically connecting the connection pad to a measurement electrical circuit, the connection land being formed in the second metal layer , being electrically isolated from the thermal conduction lands of the first and second metal layers and being at least partially covered by the thermal conduction land of the first metal layer
A steam iron comprising: a soleplate having a steam generating surface and a fabric contact surface , the steam generating surface having a scale collation area , and a guide area configured to guide scale to the scale collation area, wherein the steam generating surface comprises an inclined portion extending at an angle relative to the fabric contact surface to guide scale to the scale collation area at a lower end of the steam generating surface when the steam iron is in use, characterised in that the steam iron further comprises a fluid flow arrangement configured to introduce liquid directly onto the scale collation area to urge scale to be transported from the scale collation area to a discharge section. a soleplate having a steam generating surface and a fabric contact surface , the steam generating surface having a scale collation area , and a guide area configured to guide scale to the scale collation area, wherein the steam generating surface comprises an inclined portion extending at an angle relative to the fabric contact surface to guide scale to the scale collation area at a lower end of the steam generating surface when the steam iron is in use, characterised in that the steam iron further comprises a fluid flow arrangement configured to introduce liquid directly onto the scale collation area to urge scale to be transported from the scale collation area to a discharge section.
A method for a terminal in a wireless communication system, the method comprising: receiving information on a conventional uplink/downlink, UL/DL, configuration; receiving configuration information for adaptively configured time division duplex, TDD, system, wherein the configuration information includes a reference UL/DL configuration which is for transmitting HARQ-ACK information from the terminal;and receiving information on a first adapted UL/DL configuration; operating using the first adapted UL/DL configuration; characterised in that the method further comprises: determining whether information indicating a second adapted UL/DL configuration is detected, after a known validity period of the first adapted UL/DL configuration; and operating using the conventional UL/DL configuration and transmitting the HARQ-ACK information based on the reference UL/DL configuration, in case that the terminal does not detect the information indicating the second adapted UL/DL configuration, wherein the known validity period corresponds to a multiple of radio frames. receiving information on a conventional uplink/downlink, UL/DL, configuration; receiving configuration information for adaptively configured time division duplex, TDD, system, wherein the configuration information includes a reference UL/DL configuration which is for transmitting HARQ-ACK information from the terminal;and receiving information on a first adapted UL/DL configuration; operating using the first adapted UL/DL configuration; characterised in that the method further comprises: determining whether information indicating a second adapted UL/DL configuration is detected, after a known validity period of the first adapted UL/DL configuration; and operating using the conventional UL/DL configuration and transmitting the HARQ-ACK information based on the reference UL/DL configuration, in case that the terminal does not detect the information indicating the second adapted UL/DL configuration, determining whether information indicating a second adapted UL/DL configuration is detected, after a known validity period of the first adapted UL/DL configuration; and operating using the conventional UL/DL configuration and transmitting the HARQ-ACK information based on the reference UL/DL configuration, in case that the terminal does not detect the information indicating the second adapted UL/DL configuration, wherein the known validity period corresponds to a multiple of radio frames.
A method of reducing cold startup time of a genset for providing a requested power to a utility grid or load, the genset comprising an engine, an exhaust system, and a generator, the method comprising: determining if the generator is electrically coupled to a utility grid or load; in response to determining the generator is electrically coupled to the utility grid or load: controlling a speed bias value representing a difference between a target power output and a current power output being produced by the genset; wherein in response to determining that an exhaust system temperature of the exhaust system is below a predetermined temperature threshold, the speed bias value is controlled to ramp a genset power based on the current power output; and in response to determining that the exhaust system temperature is above the predetermined temperature threshold, the speed bias value is controlled based on time; and controlling the power of the engine using the speed bias value. determining if the generator is electrically coupled to a utility grid or load; in response to determining the generator is electrically coupled to the utility grid or load: controlling a speed bias value representing a difference between a target power output and a current power output being produced by the genset; wherein in response to determining that an exhaust system temperature of the exhaust system is below a predetermined temperature threshold, the speed bias value is controlled to ramp a genset power based on the current power output; and in response to determining that the exhaust system temperature is above the predetermined temperature threshold, the speed bias value is controlled based on time; and controlling the power of the engine using the speed bias value. controlling a speed bias value representing a difference between a target power output and a current power output being produced by the genset; wherein in response to determining that an exhaust system temperature of the exhaust system is below a predetermined temperature threshold, the speed bias value is controlled to ramp a genset power based on the current power output; and in response to determining that the exhaust system temperature is above the predetermined temperature threshold, the speed bias value is controlled based on time; and in response to determining that an exhaust system temperature of the exhaust system is below a predetermined temperature threshold, the speed bias value is controlled to ramp a genset power based on the current power output; and in response to determining that the exhaust system temperature is above the predetermined temperature threshold, the speed bias value is controlled based on time; and controlling the power of the engine using the speed bias value.
A method for coating a ceramic catalyst support with a base coating, said method comprising: providing an aqueous mixture comprising at least one polyvinyl alcohol homopolymer and at least one blocked isocyanate crosslinker comprising a blocking agent, wherein the amount of the at least one polyvinyl alcohol homopolymer ranges from 50 wt% to 99 wt% of total polymer solids in the aqueous mixture, wherein the amount of the at least one blocked isocyanate crosslinker ranges from 1 wt% to 50 wt% of total polymer solids in the aqueous mixture; applying a coating of the aqueous mixture to a ceramic catalyst support; and drying and curing the coating. providing an aqueous mixture comprising at least one polyvinyl alcohol homopolymer and at least one blocked isocyanate crosslinker comprising a blocking agent, wherein the amount of the at least one polyvinyl alcohol homopolymer ranges from 50 wt% to 99 wt% of total polymer solids in the aqueous mixture, wherein the amount of the at least one blocked isocyanate crosslinker ranges from 1 wt% to 50 wt% of total polymer solids in the aqueous mixture; wherein the amount of the at least one polyvinyl alcohol homopolymer ranges from 50 wt% to 99 wt% of total polymer solids in the aqueous mixture, wherein the amount of the at least one blocked isocyanate crosslinker ranges from 1 wt% to 50 wt% of total polymer solids in the aqueous mixture; applying a coating of the aqueous mixture to a ceramic catalyst support; and drying and curing the coating.
A control system for a surgical instrument , the control system comprising: an imaging system comprising: an emitter configured to emit electromagnetic radiation; and an image sensor configured to receive reflected electromagnetic radiation indicative of a first tissue parameter; a sensor configured to detect a second tissue parameter of a tissue acted on by the surgical instrument; and a control circuit coupled to the imaging system and the sensor, the control circuit configured to: determine a state of the tissue based on a combination of the first tissue parameter and the second tissue parameter; and control the surgical instrument according to the determined state of the tissue. an imaging system comprising: an emitter configured to emit electromagnetic radiation; and an image sensor configured to receive reflected electromagnetic radiation indicative of a first tissue parameter; an emitter configured to emit electromagnetic radiation; and an image sensor configured to receive reflected electromagnetic radiation indicative of a first tissue parameter; a sensor configured to detect a second tissue parameter of a tissue acted on by the surgical instrument; and a control circuit coupled to the imaging system and the sensor, the control circuit configured to: determine a state of the tissue based on a combination of the first tissue parameter and the second tissue parameter; and control the surgical instrument according to the determined state of the tissue. determine a state of the tissue based on a combination of the first tissue parameter and the second tissue parameter; and control the surgical instrument according to the determined state of the tissue.
An ocular lens , comprising: a lens body configured to removeably contact an eye, the lens body including an optic zone shaped to direct central light towards a central focal point of a central region of a retina of the eye when worn on the eye, and an optic feature of the lens body that directs peripheral light into the eye away from the central region of the retina when the lens body is disposed relative to the eye, wherein the optic feature further causes the peripheral light directed away from the central region of the retina to have a focal point not on the retina; wherein the optic feature is configured to focus the peripheral light in front of a peripheral region of the retina, characterized in that the optical feature is a hexagonal or semi-spherical lenslet. a lens body configured to removeably contact an eye, the lens body including an optic zone shaped to direct central light towards a central focal point of a central region of a retina of the eye when worn on the eye, and an optic feature of the lens body that directs peripheral light into the eye away from the central region of the retina when the lens body is disposed relative to the eye, wherein the optic feature further causes the peripheral light directed away from the central region of the retina to have a focal point not on the retina; wherein the optic feature is configured to focus the peripheral light in front of a peripheral region of the retina, characterized in that the optical feature is a hexagonal or semi-spherical lenslet.
A network device transmission bandwidth reduction method, comprising: receiving, by a terminal, transmission bandwidth reduction configuration information sent by a network device, wherein the transmission bandwidth reduction configuration information comprises a set of transmission bandwidth reduction parameters supported by the network device; and sending, by the terminal, a target transmission bandwidth reduction coefficient to the network device, wherein the target transmission bandwidth reduction coefficient is a transmission bandwidth reduction coefficient that is of a serving cell and that is expected by the terminal, and the serving cell comprises all cells that currently provide services for the terminal. receiving, by a terminal, transmission bandwidth reduction configuration information sent by a network device, wherein the transmission bandwidth reduction configuration information comprises a set of transmission bandwidth reduction parameters supported by the network device; and sending, by the terminal, a target transmission bandwidth reduction coefficient to the network device, wherein the target transmission bandwidth reduction coefficient is a transmission bandwidth reduction coefficient that is of a serving cell and that is expected by the terminal, and the serving cell comprises all cells that currently provide services for the terminal.
A method comprising: scanning, with an optical scanner of a base for a disposable flow sensor , a flow sensor label attached to the disposable flow sensor to decode a flow sensor identifier associated with the disposable flow sensor ; scanning, with the optical scanner of the base for the disposable flow sensor , a patient label attached to a patient to decode a patient identifier associated with the patient; connecting the disposable flow sensor to the base . scanning, with an optical scanner of a base for a disposable flow sensor , a flow sensor label attached to the disposable flow sensor to decode a flow sensor identifier associated with the disposable flow sensor ; scanning, with the optical scanner of the base for the disposable flow sensor , a patient label attached to a patient to decode a patient identifier associated with the patient; connecting the disposable flow sensor to the base .
A vehicle control device comprising an electronic circuit, a circuit board , a housing and at least one vehicle sensor , wherein the electronic components of the electronic circuit of the vehicle control device are arranged on the circuit board , wherein the at least one vehicle sensor is configured as a pressure sensor and wherein the at least one vehicle sensor is electrically connected to the electronic circuit for receiving measurement values, wherein the vehicle sensor is connected to the circuit board by means of a flexible electrical connection, wherein the flexible electrical connection is connected to the circuit board via a press-fit contact , wherein a latching connection and/or a bayonet connection is configured between the vehicle sensor or the sensor housing and the housing of the vehicle control device, wherein the vehicle sensor is partially inside the housing and partially outside, wherein a recess is provided in the housing lower part , which corresponds with the outside measurements of the plugged in vehicle sensor and into which the vehicle sensor is plugged from the inside of the housing .
Apparatus for splicing substantially flat continuous material, the apparatus comprising: - a transport unit for transporting a first substantially flat continuous material and a second substantially flat continuous material to a splicing location , wherein the transport unit is adapted to transport the first substantially flat continuous material and the second substantially flat continuous material parallel to each other forming an overlap portion of the first substantially flat continuous material and the second substantially flat continuous material in the splicing location; - a pressure unit arranged in the splicing location adapted to apply a mechanical impact onto at least a part of the overlap portion of the first substantially flat continuous material and the second substantially flat continuous material, thereby at least partially merging the first substantially flat continuous material with the second substantially flat continuous material, characterised in that the transport unit comprises a belt conveyor, and in that the belt conveyor is arranged outside of at least the part of the overlap portion of the first substantially flat continuous material and the second substantially flat continuous material in the splicing location , in at least which part the pressure unit is adapted to apply a mechanical impact to. - a transport unit for transporting a first substantially flat continuous material and a second substantially flat continuous material to a splicing location , wherein the transport unit is adapted to transport the first substantially flat continuous material and the second substantially flat continuous material parallel to each other forming an overlap portion of the first substantially flat continuous material and the second substantially flat continuous material in the splicing location; - a pressure unit arranged in the splicing location adapted to apply a mechanical impact onto at least a part of the overlap portion of the first substantially flat continuous material and the second substantially flat continuous material, thereby at least partially merging the first substantially flat continuous material with the second substantially flat continuous material,