mhurhangee/patent-ind-claim-en huggingface dataset:
A slide output module for an automated treatment apparatus for treating tissue samples disposed on slides, the slide output module comprising: a slide output tray assembly comprising a slide output tray adjacent to a slide output cover forming one or more voids between the slide output tray and the slide output tray cover for receiving slides (S) therein, wherein the slide output tray cover comprises a first side with a fluid inlet in communication with one of the voids, and a second side configured to form a hydration chamber with a slide in said one of the voids to maintain hydration of the slide with fluid received from the fluid inlet for a designated time following treatment of the slide by the automated treatment apparatus , wherein the void is bound by a void ceiling in the second side of the slide output tray cover and the void ceiling comprises a surface configured to maintain hydration of the slide with the fluid received from the fluid inlet, wherein the void ceiling has a uniform height relative to the slide to maintain hydration of the slide with the fluid received from the fluid inlet, and characterised in that the surface of the void ceiling comprises a finish to maintain hydration of the slide with the fluid received from the fluid and the finish is configured such that a meniscus can be formed by the fluid when it is received. a slide output tray assembly comprising a slide output tray adjacent to a slide output cover forming one or more voids between the slide output tray and the slide output tray cover for receiving slides (S) therein, wherein the slide output tray cover comprises a first side with a fluid inlet in communication with one of the voids, and a second side configured to form a hydration chamber with a slide in said one of the voids to maintain hydration of the slide with fluid received from the fluid inlet for a designated time following treatment of the slide by the automated treatment apparatus , wherein the void is bound by a void ceiling in the second side of the slide output tray cover and the void ceiling comprises a surface configured to maintain hydration of the slide with the fluid received from the fluid inlet, wherein the void ceiling has a uniform height relative to the slide to maintain hydration of the slide with the fluid received from the fluid inlet, and characterised in that the surface of the void ceiling comprises a finish to maintain hydration of the slide with the fluid received from the fluid and the finish is configured such that a meniscus can be formed by the fluid when it is received.
A method for operating a cochlear implant hearing prosthesis comprising: performing a plurality of bipolar measurements on a plurality of electrodes configurable as bipolar electrode pairs; and determining , based on the bipolar measurements, a bipolar impedance value Z BP for each of a plurality of the bipolar electrode pairs; characterized by performing one or more common ground (CG) measurements at each of the plurality of bipolar electrode pairs, wherein common ground (CG) measurements measure an intra-cochlear electrode as an active electrode against all the other intra-cochlear electrodes connected together via a temporary short circuit so as to function as a collective indifferent electrode. performing a plurality of bipolar measurements on a plurality of electrodes configurable as bipolar electrode pairs; and determining , based on the bipolar measurements, a bipolar impedance value Z BP for each of a plurality of the bipolar electrode pairs; characterized by performing one or more common ground (CG) measurements at each of the plurality of bipolar electrode pairs, wherein common ground (CG) measurements measure an intra-cochlear electrode as an active electrode against all the other intra-cochlear electrodes connected together via a temporary short circuit so as to function as a collective indifferent electrode.
An apparatus for establishing a target partial vacuum within a target volume , the apparatus comprising: a turbo compressor system comprising a first turbine-driven turbo compressor having an impeller that is rotated by a gas-driven turbine driven by gas produced by combustion of a fuel, the turbo compressor system being operable during a first evacuation phase to reduce a pressure within the target volume from ambient pressure to a first intermediate pressure; a vacuum pumping system ; and an interconnecting system operable under control of a controller to establish gas communication between the turbo compressor system and the target volume , and between the vacuum pumping system and the target volume . a turbo compressor system comprising a first turbine-driven turbo compressor having an impeller that is rotated by a gas-driven turbine driven by gas produced by combustion of a fuel, the turbo compressor system being operable during a first evacuation phase to reduce a pressure within the target volume from ambient pressure to a first intermediate pressure; a vacuum pumping system ; and an interconnecting system operable under control of a controller to establish gas communication between the turbo compressor system and the target volume , and between the vacuum pumping system and the target volume .
A non-oriented electrical steel sheet comprising a chemical composition containing, by mass%, C: 0.0050 % or less, Si: 1.50 % or more and 4.00 % or less, Al: 0.002 % or less, Mn: 0.10 % or more and 5.00 % or less, S: 0.0200 % or less, P: 0.200 % or less, N: 0.0050 % or less, O: 0.0200 % or less, and at least one of Sb: 0.0010 % or more and 0.10 % or less or Sn: 0.0010 % or more and 0.10 % or less, optionally, by mass%, Ca: 0.0010 % or more and 0.0050 % or less, Ni: 0.010 % or more and 3.0 % or less, and optionally at least one selected from the group consisting of Ti: 0.0030 % or less, Nb: 0.0030 % or less, V: 0.0030 % or less, and Zr: 0.0020 % or less, with the balance being Fe and inevitable impurities, wherein the non-oriented electrical steel sheet has an Ar 3 transformation temperature of 700 °C or higher, a grain size of 80 μm or more and 200 μm or less measured in the cross section and in accordance with JIS G0551, and a Vickers hardness of 140 HV or more and 230 HV or less measured at cross section with 500 gf and in accordance with JIS Z2244. C: 0.0050 % or less, Si: 1.50 % or more and 4.00 % or less, Al: 0.002 % or less, Mn: 0.10 % or more and 5.00 % or less, S: 0.0200 % or less, P: 0.200 % or less, N: 0.0050 % or less, O: 0.0200 % or less, and at least one of Sb: 0.0010 % or more and 0.10 % or less or Sn: 0.0010 % or more and 0.10 % or less, optionally, by mass%, Ca: 0.0010 % or more and 0.0050 % or less, Ni: 0.010 % or more and 3.0 % or less, and optionally at least one selected from the group consisting of Ti: 0.0030 % or less, Nb: 0.0030 % or less, V: 0.0030 % or less, and Zr: 0.0020 % or less, with the balance being Fe and inevitable impurities, wherein the non-oriented electrical steel sheet has an Ar 3 transformation temperature of 700 °C or higher, a grain size of 80 μm or more and 200 μm or less measured in the cross section and in accordance with JIS G0551, and a Vickers hardness of 140 HV or more and 230 HV or less measured at cross section with 500 gf and in accordance with JIS Z2244.
A method for manufacturing an RFID inlet that includes a thermal paper , an antenna pattern disposed at one surface of the thermal paper , and an IC chip coupled to the antenna pattern , the method comprising: an adhesive arranging step (P1) of arranging an adhesive (A) of ultraviolet curing type inside with respect to a perimeter line of the antenna pattern arranged on a continuous body of the thermal paper (C); a metal sheet arranging step (P2) of arranging a continuous body of a metal sheet (M) on a surface on which the adhesive (A) of ultraviolet curing type is arranged of the continuous body of the thermal paper (C), the continuous body of the metal sheet (M) constituting the antenna pattern ; a cutting step (P3) of forming a shape cutting of the antenna pattern into the continuous body of the metal sheet (M); and a removing step (P4) of removing an unnecessary part (Mb) not constituting the antenna pattern in the continuous body of the metal sheet (M); characterized in that the method further comprises a pressurizing step (P5) of pressurizing the antenna pattern arranged on the continuous body of the thermal paper (C) while conveying the continuous body of the thermal paper (C), wherein in the adhesive arranging step (P1), the positions of the adhesive (A) of ultraviolet curing type are determined such that margins are formed between the perimeter line and the adhesive (A) of ultraviolet curing type arranged inside the perimeter line. an adhesive arranging step (P1) of arranging an adhesive (A) of ultraviolet curing type inside with respect to a perimeter line of the antenna pattern arranged on a continuous body of the thermal paper (C); a metal sheet arranging step (P2) of arranging a continuous body of a metal sheet (M) on a surface on which the adhesive (A) of ultraviolet curing type is arranged of the continuous body of the thermal paper (C), the continuous body of the metal sheet (M) constituting the antenna pattern ; a cutting step (P3) of forming a shape cutting of the antenna pattern into the continuous body of the metal sheet (M); and a removing step (P4) of removing an unnecessary part (Mb) not constituting the antenna pattern in the continuous body of the metal sheet (M); characterized in that the method further comprises a pressurizing step (P5) of pressurizing the antenna pattern arranged on the continuous body of the thermal paper (C) while conveying the continuous body of the thermal paper (C), wherein in the adhesive arranging step (P1), the positions of the adhesive (A) of ultraviolet curing type are determined such that margins are formed between the perimeter line and the adhesive (A) of ultraviolet curing type arranged inside the perimeter line.
A user equipment, UE , operable in a wireless communication system, the UE comprising: a transceiver ; and a processor operably connected to the transceiver and configured to: receive, from a base station , configuration information on a non-zero power channel state information reference signal, CSI-RS, resource associated with an aperiodic sounding reference signal, SRS, receive, from the base station , downlink control information including aperiodic SRS trigger information, receive, from the base station , a non-zero power CSI-RS associated with the non-zero power CSI-RS resource, wherein the non-zero power CSI-RS resource is identified based on the aperiodic SRS trigger information, identify an uplink precoder for the aperiodic SRS based on the received non-zero power CSI-RS, and transmit, to the base station, the aperiodic SRS, wherein in case that the non-zero power CSI-RS is an aperiodic CSI-RS, the aperiodic SRS trigger information and the non-zero power CSI-RS are received in a same slot. a transceiver ; and a processor operably connected to the transceiver and configured to: receive, from a base station , configuration information on a non-zero power channel state information reference signal, CSI-RS, resource associated with an aperiodic sounding reference signal, SRS, receive, from the base station , downlink control information including aperiodic SRS trigger information, receive, from the base station , a non-zero power CSI-RS associated with the non-zero power CSI-RS resource, wherein the non-zero power CSI-RS resource is identified based on the aperiodic SRS trigger information, identify an uplink precoder for the aperiodic SRS based on the received non-zero power CSI-RS, and transmit, to the base station, the aperiodic SRS, wherein in case that the non-zero power CSI-RS is an aperiodic CSI-RS, the aperiodic SRS trigger information and the non-zero power CSI-RS are received in a same slot. receive, from a base station , configuration information on a non-zero power channel state information reference signal, CSI-RS, resource associated with an aperiodic sounding reference signal, SRS, receive, from the base station , downlink control information including aperiodic SRS trigger information, receive, from the base station , a non-zero power CSI-RS associated with the non-zero power CSI-RS resource, wherein the non-zero power CSI-RS resource is identified based on the aperiodic SRS trigger information, identify an uplink precoder for the aperiodic SRS based on the received non-zero power CSI-RS, and transmit, to the base station, the aperiodic SRS, wherein in case that the non-zero power CSI-RS is an aperiodic CSI-RS, the aperiodic SRS trigger information and the non-zero power CSI-RS are received in a same slot.
A scooter comprising: a deck for a rider to stand on; a tiller projecting upwardly from the deck in use; two front wheels (404; 408); a steering mechanism configured to steer the two front wheels(404; 408) about respective steering axes; and, at least one rear wheel ; characterised in that the steering system has: a first mode of steering in which rotation of the tiller about a vertical axis (TPA) steers the two front wheels (404; 408) and, a second mode of steering in which rotation of the deck about a horizontal axis (DPA) steers the two front wheels (404; 408). a deck for a rider to stand on; a tiller projecting upwardly from the deck in use; two front wheels (404; 408); a steering mechanism configured to steer the two front wheels(404; 408) about respective steering axes; and, at least one rear wheel ; characterised in that the steering system has: a first mode of steering in which rotation of the tiller about a vertical axis (TPA) steers the two front wheels (404; 408) and, a second mode of steering in which rotation of the deck about a horizontal axis (DPA) steers the two front wheels (404; 408). a first mode of steering in which rotation of the tiller about a vertical axis (TPA) steers the two front wheels (404; 408) and, a second mode of steering in which rotation of the deck about a horizontal axis (DPA) steers the two front wheels (404; 408).
A method for restricting write cycles to a storage device , the method comprising: tracking a first count of a first set of writes, to first memory contents, executed by a first subsystem of a computing device ; determining that the first count meets a write threshold of the first subsystem ; determining that blocking criteria are met by the first subsystem based on the first count meeting the write threshold of the first subsystem ; determining that blocking criteria are not met by a second subsystem of the computing device; and selectively synchronizing to the storage device second memory contents written by the second subsystem while preventing synchronization to the storage device of the first memory contents written by the first subsystem , based on the blocking criteria not being met by the second subsystem and being met by the first subsystem . tracking a first count of a first set of writes, to first memory contents, executed by a first subsystem of a computing device ; determining that the first count meets a write threshold of the first subsystem ; determining that blocking criteria are met by the first subsystem based on the first count meeting the write threshold of the first subsystem ; determining that blocking criteria are not met by a second subsystem of the computing device; and selectively synchronizing to the storage device second memory contents written by the second subsystem while preventing synchronization to the storage device of the first memory contents written by the first subsystem , based on the blocking criteria not being met by the second subsystem and being met by the first subsystem .
A flowable food product dispenser operable to selectively dispense a food product as desired by a user, comprising: a main body having an open interior sized to receive a supply of flowable food product to be dispensed; a pump assembly supported on the main body , the pump assembly including a first end in fluid communication with the supply of flowable food product and a dispensing end extending from the main body , wherein the pump assembly includes a diaphragm pump comprising: a pumping tube including the first end in fluid communication with the supply of flowable food product; a dispensing spout extending from the main body and including the dispensing end; and a pump body positioned between the pumping tube and the dispensing spout , the pump body including a flexible diaphragm that can be depressed and released to draw the flowable food product through the pump assembly ; an automated pump actuation unit operable to actuate the pump assembly to draw the supply of flowable food product from the supply and discharge the flowable food product from the dispensing end of the pump assembly ; a cover member supported on the main body , wherein the automated pump actuation unit is mounted to the cover member such that the cover member and the automated pump actuation unit are removable from the main body as a single unit; and a sensor positioned to detect the presence of an actuation member in proximity to the sensor , wherein the automated pump actuation unit is operable to automatically actuate the pump assembly upon detection of the presence of the actuation member. a main body having an open interior sized to receive a supply of flowable food product to be dispensed; a pump assembly supported on the main body , the pump assembly including a first end in fluid communication with the supply of flowable food product and a dispensing end extending from the main body , wherein the pump assembly includes a diaphragm pump comprising: a pumping tube including the first end in fluid communication with the supply of flowable food product; a dispensing spout extending from the main body and including the dispensing end; and a pump body positioned between the pumping tube and the dispensing spout , the pump body including a flexible diaphragm that can be depressed and released to draw the flowable food product through the pump assembly ; an automated pump actuation unit operable to actuate the pump assembly to draw the supply of flowable food product from the supply and discharge the flowable food product from the dispensing end of the pump assembly ; a cover member supported on the main body , wherein the automated pump actuation unit is mounted to the cover member such that the cover member and the automated pump actuation unit are removable from the main body as a single unit; and a sensor positioned to detect the presence of an actuation member in proximity to the sensor , wherein the automated pump actuation unit is operable to automatically actuate the pump assembly upon detection of the presence of the actuation member.
Method for operating a contactless ultrasound or radar fill level measuring device having at least one open distribution transmitter , at least one receiver and at least one evaluation unit comprising the following steps: emitting a transmitter signal by the transmitter , receiving a reflection signal reflected on a reflector by the receiver , evaluating the transmitter signal and/or the reflection signal by the evaluation unit , wherein the evaluation unit identifies a frequency shift between the transmitter signal and the reflection signal and, by evaluating the determined frequency shift or a variable derived from the determined frequency shift, detects a filling event , in which a filling stream at least partially passes through the transmitter signal characterized in that the evaluation unit determines the reflector speed from the identified frequency shift and detects the filling event by comparing the reflector speed to a predetermined speed limit, wherein it is recognized whether the reflector belongs to a quickly moving filling current by comparison to a speed limit. emitting a transmitter signal by the transmitter , receiving a reflection signal reflected on a reflector by the receiver , evaluating the transmitter signal and/or the reflection signal by the evaluation unit , wherein the evaluation unit identifies a frequency shift between the transmitter signal and the reflection signal and, by evaluating the determined frequency shift or a variable derived from the determined frequency shift, detects a filling event , in which a filling stream at least partially passes through the transmitter signal characterized in that the evaluation unit determines the reflector speed from the identified frequency shift and detects the filling event by comparing the reflector speed to a predetermined speed limit, wherein it is recognized whether the reflector belongs to a quickly moving filling current by comparison to a speed limit.
A method of providing a process of dynamic energy-saving superconductive interaction of a propeller system with a fluid medium, the propeller system comprising at least one rotating propeller having at least two blades having at least two working blade surfaces (12-17) each; at least one perforation (A12-A17; B12-B17) on each of the working blade surfaces having at least one perforation hole ; at least one blade energy optimizer having at least one control block connected with at least one modulator , structurally connected with at least two portions of at least one created shunt passage having at least one communication with the perforation (A12-A17; B12-B17) on each of the working blade surfaces (12-17) of at least one blade ; the method comprising configuring the modulator for modulating a value of a connection provided by flowing the fluid medium between the perforations through the created shunt passage under an action of a difference of the pressures generated on each of the working blade surfaces (12-17) with the perforation (A12-A17; B12-B17), relatively during a surface-energy interaction of the perforated blades of the rotating propeller with the fluid medium; characterized by using the blade energy optimizer for optimizing a value of at least one parameter of said modulating, selected from a group consisting of a frequency, a range, a law and a phase of the modulating, in dependence on a change of a value of at least one controlled characteristic influencing an energy efficiency of a work of the propeller system, using a drop-shaped form such that the pressures and the modulating connection vary as shown in Figures 4 and 5 of the accompanying drawings, such that a dynamic energy optimization of the propeller system work, in an efficient manner, of a control of a boundary layer of the fluid medium on the working blade surfaces (12-17) with the perforation (A12-A17; B12-B17) during the modulated surface-energy interaction of the perforated blades of the rotating propeller with the fluid medium is provided.