mhurhangee/ep-ind-claims huggingface dataset:
A medical device (1100; 1200; 1300; 1400) for treating a cancerous tumor, comprising: an electric field generating circuit (1520; 1609) configured to generate one or more electric fields at or near a site of the cancerous tumor, the cancerous tumor comprising a cancerous cell population; control circuitry in communication with the electric field generating circuit, the control circuitry configured to control delivery of the one or more electric fields from the electric field generating circuit at or near the site of the cancerous tumor; one or more electrical leads in electrical communication with the electric field generating circuit, wherein the electric field generating circuit generates the one or more electric fields at or near the site of the cancerous tumor by means of one or more electric field vectors generated between electrodes disposed along the one or more electrical leads; wherein the control circuitry causes the electric field generating circuit to generate one or more electric fields at frequencies selected from a range of between 100 kHz to 300 kHz at the site of a cancerous tumor located within a bodily tissue; wherein the one or more electric fields comprise an electric field strength selected from a range of electric field strengths from 3 V/cm to 5 V/cm; and wherein each of the one or more electrical leads comprises one or more optical emitters disposed along the length of the one or more electrical leads, wherein the one or more optical emitters are configured to deliver optical energy to the site of the cancerous tumor. an electric field generating circuit (1520; 1609) configured to generate one or more electric fields at or near a site of the cancerous tumor, the cancerous tumor comprising a cancerous cell population; control circuitry in communication with the electric field generating circuit, the control circuitry configured to control delivery of the one or more electric fields from the electric field generating circuit at or near the site of the cancerous tumor; one or more electrical leads in electrical communication with the electric field generating circuit, wherein the electric field generating circuit generates the one or more electric fields at or near the site of the cancerous tumor by means of one or more electric field vectors generated between electrodes disposed along the one or more electrical leads; wherein the control circuitry causes the electric field generating circuit to generate one or more electric fields at frequencies selected from a range of between 100 kHz to 300 kHz at the site of a cancerous tumor located within a bodily tissue; wherein the one or more electric fields comprise an electric field strength selected from a range of electric field strengths from 3 V/cm to 5 V/cm; and wherein each of the one or more electrical leads comprises one or more optical emitters disposed along the length of the one or more electrical leads, wherein the one or more optical emitters are configured to deliver optical energy to the site of the cancerous tumor.
An induction cooktop comprising: an upper plate configured to support an object to be heated; a working coil configured to heat the object; a thin film disposed on the upper plate; a metal film that forms an equivalent circuit with the thin film and the object and is configured to allow a current of the working coil to be induced into the object supported on the upper plate; and an insulator disposed between the upper plate and the working coil, characterized in that while the object, which is made of aluminum, is positioned on the top of the upper plate, the thin film and the metal film are configured to form the equivalent circuit comprising a resistance component (R Y) and an inductor component (L Y) to thereby be inductively heated by the working coil. an upper plate configured to support an object to be heated; a working coil configured to heat the object; a thin film disposed on the upper plate; a metal film that forms an equivalent circuit with the thin film and the object and is configured to allow a current of the working coil to be induced into the object supported on the upper plate; and an insulator disposed between the upper plate and the working coil, characterized in that while the object, which is made of aluminum, is positioned on the top of the upper plate, the thin film and the metal film are configured to form the equivalent circuit comprising a resistance component (R Y) and an inductor component (L Y) to thereby be inductively heated by the working coil.
A rotatable connection for a mount device for placement in an operating room, the connection comprising an adaptable stopping mechanism that can be disposed between a first connection component configured as a spindle and a second connection component configured as a sleeve that is rotatably mounted around an axis of rotation and is rotatable relative to the first connection component, the stopping mechanism also being adapted to establish at least two different relative rotational angles of the connection components (10, 20) relative to one another or at least two different rotation ranges, wherein the adaptable stopping mechanism comprises: - a rotation lock that can be disposed at the first connection component non-rotatingly; - a coupling part that can be disposed non-rotatingly at the second connection component and that comprises a form-locking contour for establishing individual rotational angle positions; characterized in that the adaptable stopping mechanism comprises at least one stopping device with an integral stop, wherein the stopping device comprises a form-locking contour that corresponds to the form-locking contour of the coupling part, the form-locking contour allowing the stopping device to be non-rotatingly positioned at the coupling part in at least two different rotational angle positions in such a way that the integral stop is adapted to cooperate with rotation lock (1,3) and to establish the different rotational angles or rotation ranges. - a rotation lock that can be disposed at the first connection component non-rotatingly; - a coupling part that can be disposed non-rotatingly at the second connection component and that comprises a form-locking contour for establishing individual rotational angle positions;
A concrete slab load transfer and connection apparatus (500; 700) comprising: a plurality of load transfer members (540a, 640d; 740a, 840d) for transferring loads between a pair of longitudinally adjacent concrete slabs; a first basket (510; 710) and a second basket (610; 810) supporting the load transfer members (540a, 640d; 740a, 840d); a plurality of slab connection members (560, 570; 770, 760) for connecting a pair of transversely adjacent concrete slabs, the plurality of slab connection members (560, 570; 770, 760) connecting the first and second baskets; and a plurality of linkage members (580, 582, 584, 586; 780, 782, 784, 786); wherein the plurality of slab connection members comprises two rods each having a first end removably connected to the first basket by one of the plurality of linkage members, and a second end removably connected to the second basket by another of the plurality of linkage members. a plurality of load transfer members (540a, 640d; 740a, 840d) for transferring loads between a pair of longitudinally adjacent concrete slabs; a first basket (510; 710) and a second basket (610; 810) supporting the load transfer members (540a, 640d; 740a, 840d); a plurality of slab connection members (560, 570; 770, 760) for connecting a pair of transversely adjacent concrete slabs, the plurality of slab connection members (560, 570; 770, 760) connecting the first and second baskets; and a plurality of linkage members (580, 582, 584, 586; 780, 782, 784, 786); wherein the plurality of slab connection members comprises two rods each having a first end removably connected to the first basket by one of the plurality of linkage members, and a second end removably connected to the second basket by another of the plurality of linkage members.
End mill comprising four straight end cutting edges (24-1 to 24-4) arranged on an end face and a corresponding number of circumferential cutting edges (28-1 to 28-4) that each proceed from the outer nose (26-1 to 26-4) of the end cutting edges (24-1 to 24-4) and are separated from one another by flutes, a first end cutting edge passing over a flank intersecting line into a second cutting edge, the first end cutting edge and the second end cutting edge cutting over centre, and the other end cutting edges (24-2, 24-4), which lie between said two cutting edges in the cutting direction, ending before the middle (point 36), characterised in that all the angular pitches between the four end cutting edges (24-1 to 24-4) are different from one another and the second end cutting edge is offset relative to the first end cutting edge in the cutting direction by an angular pitch which is not 180°.
A dry powder inhaler device comprising a body and a trigger moving on an linear direction in the body, an inner body positioned in the interior of the outer body, a main drum into which a blister strip having drug-carrying cavities are placed, a gear set (6, 7, 8) which enables to release drugs contained in the cavities of said blister strip to be administered by rotating the main drum and around which a protective layer or cover of the blister strip is wound, and additional gears (9, 10) which are in connection with the main drum and around which a main layer of the blister strip is wound, characterized in that said device further comprises; - a pivot arm which is connected to the body by means of a support/pin between a first end and a second end of the pivot arm so that the pivot arm is made rotatable around said support pin, wherein said pivot arm converts the linear motion from the trigger into rotational motion on its second end by means of a pin disposed on the trigger, and - a transmission arm which has a first end connected to the drum in a rotating manner and a second end comprising a pin disposed so as to rest against the second end of the pivot arm, wherein said transmission arm transmits the rotational motion received from the pivot arm to the drum such that the linear motion of the trigger converted into a rotational motion is transferred to the gear set (6, 7, 8). - a pivot arm which is connected to the body by means of a support/pin between a first end and a second end of the pivot arm so that the pivot arm is made rotatable around said support pin, wherein said pivot arm converts the linear motion from the trigger into rotational motion on its second end by means of a pin disposed on the trigger, and - a transmission arm which has a first end connected to the drum in a rotating manner and a second end comprising a pin disposed so as to rest against the second end of the pivot arm, wherein said transmission arm transmits the rotational motion received from the pivot arm to the drum
A wireless battery charging system for wirelessly charging a battery of an electronic device, the system comprising: an adaptor configured to convert an AC voltage, received from an AC power supply, into a DC voltage; a wireless power transmitter, TX, configured to accept an input voltage (Vin) and in dependence thereon transmit power wirelessly to a wireless power receiver, RX, wherein the input voltage (Vin) accepted by the wireless power TX is based on the DC voltage produced by the adaptor; the wireless power RX configured to receive power wirelessly from the wireless power TX and in dependence thereon produce a DC output voltage (Vout); first and second chargers (247, 249) each including a voltage input terminal and a voltage output terminal, the voltage input terminal of each of the first and second chargers (247, 249) accepting the output voltage (Vout) from the wireless power RX, and the voltage output terminal of each of the first and second chargers configured to be coupled to a terminal of the battery that is to be charged; the first charger comprising a closed-loop DC-DC converter; the second charger comprising an open-loop DC-DC converter; and a controller configured to selectively enable one of the first or second chargers (247, 249) at a time so that during a first set of charging phases the first charger is used to charge the battery, and during a second set of the charging phases the second charger is used to charge the battery. an adaptor configured to convert an AC voltage, received from an AC power supply, into a DC voltage; a wireless power transmitter, TX, configured to accept an input voltage (Vin) and in dependence thereon transmit power wirelessly to a wireless power receiver, RX, wherein the input voltage (Vin) accepted by the wireless power TX is based on the DC voltage produced by the adaptor; the wireless power RX configured to receive power wirelessly from the wireless power TX and in dependence thereon produce a DC output voltage (Vout); first and second chargers (247, 249) each including a voltage input terminal and a voltage output terminal, the voltage input terminal of each of the first and second chargers (247, 249) accepting the output voltage (Vout) from the wireless power RX, and the voltage output terminal of each of the first and second chargers configured to be coupled to a terminal of the battery that is to be charged; the first charger comprising a closed-loop DC-DC converter; the second charger comprising an open-loop DC-DC converter; and a controller configured to selectively enable one of the first or second chargers (247, 249) at a time so that during a first set of charging phases the first charger is used to charge the battery, and during a second set of the charging phases the second charger is used to charge the battery.
A process of manufacturing pearlescent pigments, comprising the steps of: providing substrates of monolithically structured aluminum platelets having an average thickness of from 1 to 150 nm, and having an aspect ratio expressed by the ratio of the average size to the average thickness of at least 80; coating the above aluminum platelets with a coating layer A of silicon dioxide; coating the such coated aluminum platelets with a coating layer B of a metal oxide as an interference layer, with the metal oxide being other than silicon dioxide and having a refractive index of at least 1.8; wet-oxidizing under basic conditions the above aluminum platelets, after coating with the coating layers A and B, whereby the aluminum platelets are partially or entirely converted into aluminum oxide or aluminum hydroxide; and subsequently isolating the partially or entirely wet-oxidized aluminum platelets coated with the coating layers A and B. providing substrates of monolithically structured aluminum platelets having an average thickness of from 1 to 150 nm, and having an aspect ratio expressed by the ratio of the average size to the average thickness of at least 80; coating the above aluminum platelets with a coating layer A of silicon dioxide; coating the such coated aluminum platelets with a coating layer B of a metal oxide as an interference layer, with the metal oxide being other than silicon dioxide and having a refractive index of at least 1.8; wet-oxidizing under basic conditions the above aluminum platelets, after coating with the coating layers A and B, whereby the aluminum platelets are partially or entirely converted into aluminum oxide or aluminum hydroxide; and subsequently isolating the partially or entirely wet-oxidized aluminum platelets coated with the coating layers A and B.
A communication device (20, 130) for handling communications in a dual connectivity, comprising: a storage device; and a processing circuit, coupled to the storage device, wherein the storage device stores, and the processing circuit is configured to execute, instructions of: establishing a first signaling radio bearer, SRB, with a master base station, MBS,; establishing a second SRB with a secondary base station, SBS, in a RRC connection reconfiguration procedure; transmitting a first radio resource control, RRC, response message of the RRC connection reconfiguration procedure on the first SRB in response to a first RRC message of the RRC connection reconfiguration procedure, when receiving the first RRC message on the first SRB; and transmitting a second RRC response message on the second SRB in response to a second RRC message, when receiving the second RRC message on the second SRB, wherein the first RRC message configures the second SRB to the communication device (20, 130). a storage device; and a processing circuit, coupled to the storage device, wherein the storage device stores, and the processing circuit is configured to execute, instructions of: establishing a first signaling radio bearer, SRB, with a master base station, MBS,; establishing a second SRB with a secondary base station, SBS, in a RRC connection reconfiguration procedure; transmitting a first radio resource control, RRC, response message of the RRC connection reconfiguration procedure on the first SRB in response to a first RRC message of the RRC connection reconfiguration procedure, when receiving the first RRC message on the first SRB; and transmitting a second RRC response message on the second SRB in response to a second RRC message, when receiving the second RRC message on the second SRB, establishing a first signaling radio bearer, SRB, with a master base station, MBS,; establishing a second SRB with a secondary base station, SBS, in a RRC connection reconfiguration procedure; transmitting a first radio resource control, RRC, response message of the RRC connection reconfiguration procedure on the first SRB in response to a first RRC message of the RRC connection reconfiguration procedure, when receiving the first RRC message on the first SRB; and transmitting a second RRC response message on the second SRB in response to a second RRC message, when receiving the second RRC message on the second SRB, wherein the first RRC message configures the second SRB to the communication device (20, 130).
A method for roasting coffee beans comprising the steps of a) heating the coffee beans until the temperature of the coffee beans is at least 180°C; b) injecting a stream of oxygen-containing gas into the flow of hot air after the burner; wherein the injection of a stream of oxygen-containing gas into the flow of hot air after the burner is started when the temperature of the coffee beans is between 180°C and 250°C; and c) maintaining the injection of the stream of oxygen-containing gas until the end of the roasting process to mitigate the concentration of carbon monoxide in the roasting chamber, and wherein the coffee beans are roasted in a rotating fluidized bed roaster to a final colour of below CTn 45 when measured with a spectrophotometer at a wavelength of 904 nm. a) heating the coffee beans until the temperature of the coffee beans is at least 180°C; b) injecting a stream of oxygen-containing gas into the flow of hot air after the burner; wherein the injection of a stream of oxygen-containing gas into the flow of hot air after the burner is started when the temperature of the coffee beans is between 180°C and 250°C; and c) maintaining the injection of the stream of oxygen-containing gas until the end of the roasting process to mitigate the concentration of carbon monoxide in the roasting chamber,
A laundry detergent composition comprising: (i) from 4 to 50 wt% of an anionic charged surfactant, other than an alkyl ether carboxylic acid dispersant; (ii) from 0.5 to 20 wt% of an alkyl ether carboxylic acid dispersant of the following structure: R-(OCH 2 CH 2) n -OCH 2 -COOH, wherein: R is selected from saturated and mono-unsaturated C10 to C26 linear or branched alkyl chains; n is selected from 7 to 13; (iii) from 0.0005 to 0.5 wt % of a lipase enzyme; and, (iv) from 0.0005 to 0.2 wt% of a protease enzyme. (i) from 4 to 50 wt% of an anionic charged surfactant, other than an alkyl ether carboxylic acid dispersant; (ii) from 0.5 to 20 wt% of an alkyl ether carboxylic acid dispersant of the following structure: R-(OCH 2 CH 2) n -OCH 2 -COOH, wherein: R is selected from saturated and mono-unsaturated C10 to C26 linear or branched alkyl chains; n is selected from 7 to 13; R is selected from saturated and mono-unsaturated C10 to C26 linear or branched alkyl chains; n is selected from 7 to 13; (iii) from 0.0005 to 0.5 wt % of a lipase enzyme; and, (iv) from 0.0005 to 0.2 wt% of a protease enzyme.
A cartridge (103,400) for an intraocular lens insertion device, comprising: an intraocular lens insertion cartridge body having a distal end and a proximal end and configured to receive an intraocular lens for insertion into a patient's eye through an incision; the intraocular lens insertion cartridge body having an inner surface comprising at least one polymeric material selected from the group consisting of polyurethane, acrylic butyldiene styrene, styrene butyldiene, high impact polystyrene, a polyester polymer, polymeric blends or copolymers thereof, wherein the at least one polymeric material having a hardness greater than about 50D and an elongation at break greater than about 150%; the inner surface of the intraocular lens insertion cartridge body defining an at least partially tapering insertion pathway (201,402) disposed within the intraocular lens insertion cartridge body and extending from the proximal end to the distal end of the intraocular lens insertion cartridge body. an intraocular lens insertion cartridge body having a distal end and a proximal end and configured to receive an intraocular lens for insertion into a patient's eye through an incision; the intraocular lens insertion cartridge body having an inner surface comprising at least one polymeric material selected from the group consisting of polyurethane, acrylic butyldiene styrene, styrene butyldiene, high impact polystyrene, a polyester polymer, polymeric blends or copolymers thereof, wherein the at least one polymeric material having a hardness greater than about 50D and an elongation at break greater than about 150%; the inner surface of the intraocular lens insertion cartridge body defining an at least partially tapering insertion pathway (201,402) disposed within the intraocular lens insertion cartridge body and extending from the proximal end to the distal end of the intraocular lens insertion cartridge body.