mhurhangee/ep-ind-claims huggingface dataset:
A forced air convection apparatus for cooling a turbomachine, the forced air convection apparatus comprising: a duct assembly having one or more outlets (45, 46) which are removably joinable to one or more corresponding air intakes (11, 30) of the turbomachine, and further having one or more inlets (47, 48) which are removably joinable to one or more corresponding exhausts (23, 31) of the turbomachine to enable closed loop recirculatory airflow through the turbomachine and the duct assembly and back to the turbomachine; and an air handling system having a blower arranged to blow air from the one or more inlets of the duct assembly to the one or more outlets of the duct assembly, and further having a heat exchanger configured to cool the air flowing through the duct assembly. a duct assembly having one or more outlets (45, 46) which are removably joinable to one or more corresponding air intakes (11, 30) of the turbomachine, and further having one or more inlets (47, 48) which are removably joinable to one or more corresponding exhausts (23, 31) of the turbomachine to enable closed loop recirculatory airflow through the turbomachine and the duct assembly and back to the turbomachine; and an air handling system having a blower arranged to blow air from the one or more inlets of the duct assembly to the one or more outlets of the duct assembly, and further having a heat exchanger configured to cool the air flowing through the duct assembly.
A fingerprint module, comprising: a cover plate comprising an inner surface; an adhesive; a fingerprint chip heat-pressed on the inner surface by the adhesive, the adhesive contacting the cover plate and the fingerprint chip; a circuit board coupled to a side of the fingerprint chip opposite to the cover plate, wherein the circuit board is electrically coupled to the fingerprint chip; characterized in that the fingerprint module further comprises: a board-to-board connector for electrically coupling the circuit board to the fingerprint chip, the board-to-board connector comprising: a socket soldered onto the fingerprint chip; and a plug soldered onto the circuit board and electrically connecting with the socket. a cover plate comprising an inner surface; an adhesive; a fingerprint chip heat-pressed on the inner surface by the adhesive, the adhesive contacting the cover plate and the fingerprint chip; a circuit board coupled to a side of the fingerprint chip opposite to the cover plate, wherein the circuit board is electrically coupled to the fingerprint chip; characterized in that the fingerprint module further comprises: a board-to-board connector for electrically coupling the circuit board to the fingerprint chip, the board-to-board connector comprising: a socket soldered onto the fingerprint chip; and a plug soldered onto the circuit board and electrically connecting with the socket. a socket soldered onto the fingerprint chip; and a plug soldered onto the circuit board and electrically connecting with the socket.
A method of installing a fastener in a workpiece, the method comprising: pulling on a strip (80, 180) of collated fasteners at a location downstream of a guide (30, 130) defining a bore (32, 132) to apply tension to a portion of the strip (80, 180) between the bore (32, 132) and a leading end of the strip (80, 180), the strip (80, 180) including a carrier (85, 185) and a plurality of fasteners; and advancing a first fastener from the plurality of fasteners through the bore (32, 132) and into a workpiece, wherein a trailing end of the carrier (85, 185) remains upstream of the guide (30, 130) during the pulling step, wherein a portion of the carrier (85, 185) between the trailing end and the guide (30, 130) is under no tension during the pulling step and/or during the advancing step, wherein the method further comprises attaching a tension feeder (40, 140) to only the leading end of the carrier (85, 185) so that the tension feeder (40, 140) pulls on the carrier (85, 185) at the location downstream of the guide (30, 130). pulling on a strip (80, 180) of collated fasteners at a location downstream of a guide (30, 130) defining a bore (32, 132) to apply tension to a portion of the strip (80, 180) between the bore (32, 132) and a leading end of the strip (80, 180), the strip (80, 180) including a carrier (85, 185) and a plurality of fasteners; and advancing a first fastener from the plurality of fasteners through the bore (32, 132) and into a workpiece, wherein a trailing end of the carrier (85, 185) remains upstream of the guide (30, 130) during the pulling step, wherein a portion of the carrier (85, 185) between the trailing end and the guide (30, 130) is under no tension during the pulling step and/or during the advancing step, wherein the method further comprises attaching a tension feeder (40, 140) to only the leading end of the carrier (85, 185) so that the tension feeder (40, 140) pulls on the carrier (85, 185) at the location downstream of the guide (30, 130).
A portable wireless communications adapter comprising: a wireless receiver configured to receive wireless data over a Wireless Avionics Intra-Communication, WAIC, frequency range between 4.2 GHz and 4.4 GHz; a wireless transmitter configured to send wireless data over the WAIC frequency range between 4.2 GHz and 4.4 GHz; an electronic interface connector configured to mate with a portable electronic device for communication of the wireless data with the portable electronic device; and characterised by a location sensing module configured to: determine a location of the portable wireless communications adapter relative to an interior of an aircraft based on WAIC communications received at the wireless receiver; selectively enable the wireless transmitter to send wireless data in response to determining that the portable wireless communications adapter is located within the interior of the aircraft; and selectively disable the wireless transmitter to prevent the wireless transceiver from sending wireless data in response to determining that the portable wireless communications adapter is not located within the interior of the aircraft. a wireless receiver configured to receive wireless data over a Wireless Avionics Intra-Communication, WAIC, frequency range between 4.2 GHz and 4.4 GHz; a wireless transmitter configured to send wireless data over the WAIC frequency range between 4.2 GHz and 4.4 GHz; an electronic interface connector configured to mate with a portable electronic device for communication of the wireless data with the portable electronic device; and characterised by a location sensing module configured to: determine a location of the portable wireless communications adapter relative to an interior of an aircraft based on WAIC communications received at the wireless receiver; selectively enable the wireless transmitter to send wireless data in response to determining that the portable wireless communications adapter is located within the interior of the aircraft; and selectively disable the wireless transmitter to prevent the wireless transceiver from sending wireless data in response to determining that the portable wireless communications adapter is not located within the interior of the aircraft. determine a location of the portable wireless communications adapter relative to an interior of an aircraft based on WAIC communications received at the wireless receiver; selectively enable the wireless transmitter to send wireless data in response to determining that the portable wireless communications adapter is located within the interior of the aircraft; and selectively disable the wireless transmitter to prevent the wireless transceiver from sending wireless data in response to determining that the portable wireless communications adapter is not located within the interior of the aircraft.
A transfer film (200, 300, 400, 500, 600) comprising: a sacrificial support substrate (301, 402, 503, 603); a sacrificial template layer (205, 305, 405, 504, 605) having a first surface applied to the sacrificial support substrate and a second surface opposite the first surface, wherein the second surface comprises a structured surface comprising: a sacrificial materials component; and a thermally stable materials component; and a thermally stable backfill layer (207, 307, 407, 507, 607) disposed upon the second surface of the sacrificial template layer (205, 305, 405, 504, 605), wherein the thermally stable backfill layer (207, 307, 407, 507, 607) has a structured surface conforming to the structured surface of the template layer (205, 305, 405, 504, 605), and wherein the thermally stable materials component of the sacrificial template layer (205, 305, 405, 504, 605) includes a binder, wherein the binder is formed from a binder precursor comprising metal alkoxide or polysilazanes. a sacrificial support substrate (301, 402, 503, 603); a sacrificial template layer (205, 305, 405, 504, 605) having a first surface applied to the sacrificial support substrate and a second surface opposite the first surface, wherein the second surface comprises a structured surface comprising: a sacrificial materials component; and a thermally stable materials component; and a thermally stable backfill layer (207, 307, 407, 507, 607) disposed upon the second surface of the sacrificial template layer (205, 305, 405, 504, 605), a sacrificial materials component; and a thermally stable materials component; and a thermally stable backfill layer (207, 307, 407, 507, 607) disposed upon the second surface of the sacrificial template layer (205, 305, 405, 504, 605), wherein the thermally stable backfill layer (207, 307, 407, 507, 607) has a structured surface conforming to the structured surface of the template layer (205, 305, 405, 504, 605), and wherein the thermally stable materials component of the sacrificial template layer (205, 305, 405, 504, 605) includes a binder, wherein the binder is formed from a binder precursor comprising metal alkoxide or polysilazanes.
Method by means of which the heat output (Qw) of a heating appliance to a room can be influenced, wherein a temperature sensor is connected to a control or adjusting device of the heating appliance, in which a set heat output (Qs) is calculated, which is output by means of a set speed of a fan of an opening position of an opening flap and/or by the set heating output of a heating element of the heating appliance, characterised in that the set heat output is additionally overlaid or modified by a clock signal, whereby the intensity of the heat output differs at least partly from the set heat output, wherein the switch-on and switch-off times preset by the control or adjusting device and also the preset speed values on the fan are preferably overlaid by active and rest times, wherein a speed of the fan differs at least in rest times from the set speed, the calculated set heat output (Qs), wherein in the active times the heat output (Qw) of the heating appliance is increased by increasing the speed and/or in the rest times the heat output of the heating appliance is decreased by reducing the speed, and at the beginning of the active times on the fan at least up to the start-up of the fan or for a predefined period the full mains voltage or rated voltage of the fan is applied and after the start-up of the fan or after a predefined period the speed of the fan is adjusted.
A printed matter comprising: a recording medium; a chromatic color layer formed, with a chromatic colorant, on the recording medium; a plurality of first regions formed with a transparent material and arranged at intervals on the chromatic color layer; and a plurality of second regions each of which is disposed between adjacent two of the plurality of first regions, wherein a first unit material amount calculated by dividing an amount of the transparent material in the plurality of first regions with an area of the plurality of first regions is different from a second unit material amount calculated by dividing an amount of the transparent material in the plurality of second regions with an area of the plurality of second regions, wherein the second unit material amount is optionally zero; and wherein the chromatic color layer includes: a plurality of first chromatic regions including the chromatic colorant; and a plurality of second chromatic regions including the chromatic colorant and having a saturation higher than a saturation of the plurality of first chromatic regions, wherein the plurality of first regions is on the plurality of first chromatic regions, respectively, wherein the plurality of second regions is on the plurality of second chromatic regions, respectively, and wherein the first unit material amount is greater than the second unit material amount. a recording medium; a chromatic color layer formed, with a chromatic colorant, on the recording medium; a plurality of first regions formed with a transparent material and arranged at intervals on the chromatic color layer; and a plurality of second regions each of which is disposed between adjacent two of the plurality of first regions, wherein a first unit material amount calculated by dividing an amount of the transparent material in the plurality of first regions with an area of the plurality of first regions is different from a second unit material amount calculated by dividing an amount of the transparent material in the plurality of second regions with an area of the plurality of second regions, wherein the second unit material amount is optionally zero; and wherein the chromatic color layer includes: a plurality of first chromatic regions including the chromatic colorant; and a plurality of second chromatic regions including the chromatic colorant and having a saturation higher than a saturation of the plurality of first chromatic regions, a plurality of first chromatic regions including the chromatic colorant; and a plurality of second chromatic regions including the chromatic colorant and having a saturation higher than a saturation of the plurality of first chromatic regions, wherein the plurality of first regions is on the plurality of first chromatic regions, respectively, wherein the plurality of second regions is on the plurality of second chromatic regions, respectively, and wherein the first unit material amount is greater than the second unit material amount.
Method for cooling at least one heat-generating component, the at least one component being arranged in a housing, the at least one component being arranged at least indirectly in an operative connection with a cooling device, the dew point temperature in the housing being lowered in the region of the at least one heat-generating component by way of decreasing of the air pressure (p 1) in the housing, at least in that part region of the housing, in which the at least one heat-generating component is arranged, in comparison with the air pressure (p 2) in the immediate external surroundings of the housing, characterized in that the air which is situated in the housing is extracted from the housing by way of a device and is replaced with incoming air from the surroundings, and in that the inflow of surrounding air into the housing is controlled by means of a valve device, the valve device and the device for decreasing the air pressure (p 1) in the housing being actuated by an, in particular, common control device.
An apparatus for generating electricity, comprising: a generating sub-assembly; a support structure for supporting said generating sub-assembly; and a support mechanism for securing the generating sub-assembly to said support structure; wherein: said generating sub-assembly has a wind-responsive turbine and an electrical generator; said support structure includes a buoyancy portion for submersion in water and a mast portion extending from said buoyancy portion to extend the generating sub-assembly above a water line; said support structure is buoyant and free to roll when floating in water; and further wherein said support mechanism is hinged so as to allow the generating sub-assembly to maintain an operational angle during the rolling of said support structure; and said mast portion comprises: an elbow; a first section below said elbow inclined at a first angle away from said turbine; and a second section above said elbow inclined at a second angle towards said turbine, characterised in that: the centre of gravity of the generating sub-assembly is below the position of said hinge. a generating sub-assembly; a support structure for supporting said generating sub-assembly; and a support mechanism for securing the generating sub-assembly to said support structure; wherein: said generating sub-assembly has a wind-responsive turbine and an electrical generator; said support structure includes a buoyancy portion for submersion in water and a mast portion extending from said buoyancy portion to extend the generating sub-assembly above a water line; said support structure is buoyant and free to roll when floating in water; and further wherein said support mechanism is hinged so as to allow the generating sub-assembly to maintain an operational angle during the rolling of said support structure; and said mast portion comprises: an elbow; a first section below said elbow inclined at a first angle away from said turbine; and a second section above said elbow inclined at a second angle towards said turbine, characterised in that: the centre of gravity of the generating sub-assembly is below the position of said hinge. said generating sub-assembly has a wind-responsive turbine and an electrical generator; said support structure includes a buoyancy portion for submersion in water and a mast portion extending from said buoyancy portion to extend the generating sub-assembly above a water line; said support structure is buoyant and free to roll when floating in water; and further wherein said support mechanism is hinged so as to allow the generating sub-assembly to maintain an operational angle during the rolling of said support structure; and said mast portion comprises: an elbow; a first section below said elbow inclined at a first angle away from said turbine; and a second section above said elbow inclined at a second angle towards said turbine, characterised in that: the centre of gravity of the generating sub-assembly is below the position of said hinge. the centre of gravity of the generating sub-assembly is below the position of said hinge.
A resealable cap for a container, comprising: a cap cover having an opening; and a resealable closure mechanism including an actuator tab, a rocker arm post, and a rocker arm, wherein the rocker arm post has a first end connected to the actuator tab and a second end connected to a first end of the rocker arm, and a second end of the rocker arm is configured to mate with the opening in the cap cover when the actuator tab is in an un-actuated position, wherein the resealable closure mechanism is configured such that, when the actuator tab is switched from the un-actuated position to an actuated position, the rocker arm pivots such that the first end of the rocker arm pivots upward, while the second end of the rocker arm pivots downward, characterized in that the rocker arm post includes a detent, and the detent is configured to mate with a detent groove positioned in the cap cover when the actuator tab is in the un-actuated position. a cap cover having an opening; and a resealable closure mechanism including an actuator tab, a rocker arm post, and a rocker arm, wherein the rocker arm post has a first end connected to the actuator tab and a second end connected to a first end of the rocker arm, and a second end of the rocker arm is configured to mate with the opening in the cap cover when the actuator tab is in an un-actuated position, wherein an actuator tab, a rocker arm post, and a rocker arm, wherein the rocker arm post has a first end connected to the actuator tab and a second end connected to a first end of the rocker arm, and a second end of the rocker arm is configured to mate with the opening in the cap cover when the actuator tab is in an un-actuated position, wherein the resealable closure mechanism is configured such that, when the actuator tab is switched from the un-actuated position to an actuated position, the rocker arm pivots such that the first end of the rocker arm pivots upward, while the second end of the rocker arm pivots downward, characterized in that the rocker arm post includes a detent, and the detent is configured to mate with a detent groove positioned in the cap cover when the actuator tab is in the un-actuated position.
An encryption unit for encrypting at least one packet (P1, P2) according to a predetermined cryptographic protocol, wherein the predetermined cryptographic protocol requires exchanging of service channel information, wherein the service channel information has a first bit length, the encryption unit comprising: a packet analyzer configured to recognize whether at least one packet (P1, P2) has unused bits, a packet builder configured to insert service channel information in the packet (P1, P2) if the number of unused bits is equal to or larger than the first bit length, an encryption engine configured to encrypt the packet (P1, P2) according to the predetermined cryptographic protocol, wherein the packet (P1, P2) is a SCC packet of a Multiprotocol Label Switching Protocol, or an ESMC packet of a Multiprotocol Label Switching Protocol, or a BFD packet according to the RFC5880 standard. a packet analyzer configured to recognize whether at least one packet (P1, P2) has unused bits, a packet builder configured to insert service channel information in the packet (P1, P2) if the number of unused bits is equal to or larger than the first bit length, an encryption engine configured to encrypt the packet (P1, P2) according to the predetermined cryptographic protocol, wherein the packet (P1, P2) is a SCC packet of a Multiprotocol Label Switching Protocol, or an ESMC packet of a Multiprotocol Label Switching Protocol, or a BFD packet according to the RFC5880 standard.
A method for preparing a medical material for replacing a hard tissue defect in a living body, comprising: a first step of preparing a molded product by press-molding powders of bioactive glass; a second step of subjecting the molded product to a first heat treatment at 650°C to 745°C; a third step of processing the heat-treated molded product to form a shape of a hard tissue defect, said shape being adapted according to a predetermined contraction rate during a second heat treatment; and a fourth step of subjecting the processed product to the second heat treatment at 850°C to 1,200°C; a fifth step of performing a slow cooling of the processed product subjected to the second heat treatment after the fourth step, wherein the slow cooling in the fifth step is performed at a rate of less than 5°C/min; wherein the bioactive glass possesses a glass transition temperature higher than the first heat treatment temperature and lower than the second heat treatment temperature. a first step of preparing a molded product by press-molding powders of bioactive glass; a second step of subjecting the molded product to a first heat treatment at 650°C to 745°C; a third step of processing the heat-treated molded product to form a shape of a hard tissue defect, said shape being adapted according to a predetermined contraction rate during a second heat treatment; and a fourth step of subjecting the processed product to the second heat treatment at 850°C to 1,200°C; a fifth step of performing a slow cooling of the processed product subjected to the second heat treatment after the fourth step, wherein the slow cooling in the fifth step is performed at a rate of less than 5°C/min; wherein the bioactive glass possesses a glass transition temperature higher than the first heat treatment temperature and lower than the second heat treatment temperature.