mhurhangee/patent-ind-claim-en huggingface dataset:
An airbag device, comprising: an airbag that is disposed in a vehicle in use and that is formed in a bag shape to deploy by being supplied with gas, the airbag being adapted to increase in width gradually from a neck portion between a head facing portion and the neck portion through which the gas is introduced, the head facing portion being adapted to face a head of an occupant during inflation deployment of the airbag ; and throttle portions that provide coupling of parts of an occupant side and a side opposite from the occupant of the airbag during the inflation deployment of the airbag to each other to narrow an internal space between the neck portion and the head facing portion , characterized in that the throttle portions are formed at intervals in a width direction of the airbag , the width direction being in a width direction of the vehicle during the inflation deployment of the airbag , and contours of the throttle portions positioned outermost in the width direction are parallel to the side edge portions of the airbag positioned outside the contours in the width direction, and contours that are of the throttle portions , that are arranged adjacent to each other and that face each other are approximately parallel to each other, each of separation distances (W1, W3) between the throttle portions positioned outermost in the width direction and the side edge portions is constant. an airbag that is disposed in a vehicle in use and that is formed in a bag shape to deploy by being supplied with gas, the airbag being adapted to increase in width gradually from a neck portion between a head facing portion and the neck portion through which the gas is introduced, the head facing portion being adapted to face a head of an occupant during inflation deployment of the airbag ; and throttle portions that provide coupling of parts of an occupant side and a side opposite from the occupant of the airbag during the inflation deployment of the airbag to each other to narrow an internal space between the neck portion and the head facing portion , characterized in that the throttle portions are formed at intervals in a width direction of the airbag , the width direction being in a width direction of the vehicle during the inflation deployment of the airbag , and contours of the throttle portions positioned outermost in the width direction are parallel to the side edge portions of the airbag positioned outside the contours in the width direction, and contours that are of the throttle portions , that are arranged adjacent to each other and that face each other are approximately parallel to each other, each of separation distances (W1, W3) between the throttle portions positioned outermost in the width direction and the side edge portions is constant.
A method in a wireless Local Area Network, LAN, system, the method comprising: receiving, by a receiving station, STA, a Physical Protocol Data Unit, PPDU, through a first band from a transmitting STA (S2810); and decoding, by the receiving STA, the PPDU (S2820), wherein the PPDU includes a control field and a data field, wherein when the first band is an 80 MHz band including first to fourth 20 MHz subchannels, the first to fourth 20 MHz subchannels are arranged in order from a subchannel having a low frequency to a subchannel having a high frequency, wherein the first 20 MHz subchannel includes first multiple resource units, RUs, in which a first 26RU and a first 52RU are aggregated, wherein the first 26RU is an RU located in the middle of the first 20MHz subchannel, wherein the first 52RU is an RU having a lower frequency than the first 26RU and is adjacent to the first 26RU, wherein considering a situation in which the second 20 MHz subchannel is not punctured, the second 20MHz subchannel includes second multiple RUs in which a second 26RU and a second 52RU are aggregated, wherein the second 26RU is an RU located in the middle of the second 20MHz subchannel, and wherein the second 52RU is an RU having a lower frequency than the second 26RU and adjacent to the second 26RU. receiving, by a receiving station, STA, a Physical Protocol Data Unit, PPDU, through a first band from a transmitting STA (S2810); and decoding, by the receiving STA, the PPDU (S2820), wherein the PPDU includes a control field and a data field, wherein when the first band is an 80 MHz band including first to fourth 20 MHz subchannels, the first to fourth 20 MHz subchannels are arranged in order from a subchannel having a low frequency to a subchannel having a high frequency, wherein the first 20 MHz subchannel includes first multiple resource units, RUs, in which a first 26RU and a first 52RU are aggregated, wherein the first 26RU is an RU located in the middle of the first 20MHz subchannel, wherein the first 52RU is an RU having a lower frequency than the first 26RU and is adjacent to the first 26RU, wherein considering a situation in which the second 20 MHz subchannel is not punctured, the second 20MHz subchannel includes second multiple RUs in which a second 26RU and a second 52RU are aggregated, wherein the second 26RU is an RU located in the middle of the second 20MHz subchannel, and wherein the second 52RU is an RU having a lower frequency than the second 26RU and adjacent to the second 26RU.
A two-part bait station for attracting pests , such as rodents and especially rats, said bait station comprising: - an enclosed bait chamber for storing pest poison or a pest trap, - a receiving part for removably receiving said bait chamber during use, wherein said two part bait station is formed with an integration frame for at least partly enclosing said two-part bait station and wherein said integration frame forms at least part of the exposed outer surface of the lower ground-contacting part of an object not primarily being a bait station , such as a waste bin, a step of a staircase or a flower pot and wherein said bait chamber is formed with access openings and said integration frame is formed with holes , the holes and access openings being positioned in a manner whereby they are aligned when the bait chamber is accommodated in said receiving part whereby access for a pest is allowed from an outside environment of the integration frame , through said holes and said access openings into the said bait chamber , when the bait chamber is accommodated in said receiving part . - an enclosed bait chamber for storing pest poison or a pest trap, - a receiving part for removably receiving said bait chamber during use,
Fan unit for cooling of apparatus, such as electrical/electronic assemblies, equipment and the like, having at least one supporting body , which is designed as a housing with side walls (2 to 7), on the side walls (2 to 7) of which supporting body at least two radial fans which have fan wheels are arranged, which centrifugal fans are arranged on side walls (2 to 5) of the supporting body , which lie opposite one another and/or at an angle to one another, and generate an airflow for cooling the apparatus, and the axes of which centrifugal fans lie at an angle to the axis at least of one flow-through opening of the supporting body , which connects an interior of the supporting body to a surrounding space in terms of flow, the at least one flow-through opening for the airflow lying opposite a rear wall of the supporting body , which connects the side walls (2 to 5), i.e. the at least one flow-through opening is provided on the side wall of the supporting body , characterized in that the fan wheels of the radial fans lie outside the supporting body and the cooling air is sucked in through the at least one flow-through opening, flows through the apparatus to be cooled, which is arranged in the region of the side wall , reaches the supporting body and is then blown radially to the outside again by means of the radial fans .
A system comprising: an apparatus comprising: - a switch configured to variably connect a device circuit of an electronic device to a battery ; - a cutout control circuit connected to the switch and comprising a supply power input and a cutout activation input; and - an external port with a plurality of pins, wherein a power supply pin of the plurality of pins is electrically connected to the supply power input; - wherein the plurality of pins comprises a cutout activation pin, which cutout activation pin is electrically connected to the cutout activation input, and - wherein the cutout control circuit is configured to turn the switch on when a supply voltage is connected to the supply power input; and a charging connector configured to connect to the external port of the apparatus, wherein the charging connector is configured to supply charging power to the power supply pin, and wherein the charging connector has no corresponding contact for the cutout activation pin. an apparatus comprising: - a switch configured to variably connect a device circuit of an electronic device to a battery ; - a cutout control circuit connected to the switch and comprising a supply power input and a cutout activation input; and - an external port with a plurality of pins, wherein a power supply pin of the plurality of pins is electrically connected to the supply power input; - wherein the plurality of pins comprises a cutout activation pin, which cutout activation pin is electrically connected to the cutout activation input, and - wherein the cutout control circuit is configured to turn the switch on when a supply voltage is connected to the supply power input; and - a switch configured to variably connect a device circuit of an electronic device to a battery ; - a cutout control circuit connected to the switch and comprising a supply power input and a cutout activation input; and - an external port with a plurality of pins, wherein a power supply pin of the plurality of pins is electrically connected to the supply power input; - wherein the plurality of pins comprises a cutout activation pin, which cutout activation pin is electrically connected to the cutout activation input, and - wherein the cutout control circuit is configured to turn the switch on when a supply voltage is connected to the supply power input; and a charging connector configured to connect to the external port of the apparatus, wherein the charging connector is configured to supply charging power to the power supply pin, and wherein the charging connector has no corresponding contact for the cutout activation pin.
Solar installation having a support and having a support frame for solar modules , which are combined to form a solar panel , which support frame can be pivoted on the support about an elevation axis and which support frame forms, with respect to the elevation axis , a bottom section on the ground side and an adjoining top section , whose width extension (L 2 ) perpendicular to the elevation axis is greater than the width extension (L 1 ) of the bottom section , characterized in that , while the bottom section is at least largely wind-impermeable , the top section of the solar panel has flow passage openings at least between groups of solar modules .
Choke including two coils and a core , wherein the core comprises a plurality of core sections including a plurality of outer legs (230, 240, 240-A, 240-B, 240-C, 240-D) and a centre leg ; the core sections form two loops with the centre leg as a common portion; and each of the two coils is located on different loops outside the common portion; wherein the outer legs consist of two outer legs supporting the coils and two lateral outer legs serving as connecting members of the outer legs supporting the coils forming a magnetic circuit, and wherein the centre leg , which is parallel to the outer legs supporting the coils and which connects approximately the centres of the lateral outer legs , causes a magnetic short circuit between the connecting members and divides the magnetic circuit into two loops (200-A, 200-B), characterized in that the outer legs (230, 240, 240-A, 240-B, 240-C, 240-D) have a cross-section A1; the centre leg for the common portion has a cross-section A2 < 2 x A1, and the magnetic resistance R MA of at least one of the outer legs is higher than the magnetic resistance R MI of the centre leg, wherein R MA > 20 x R MI . the core comprises a plurality of core sections including a plurality of outer legs (230, 240, 240-A, 240-B, 240-C, 240-D) and a centre leg ; the core sections form two loops with the centre leg as a common portion; and each of the two coils is located on different loops outside the common portion; wherein the outer legs consist of two outer legs supporting the coils and two lateral outer legs serving as connecting members of the outer legs supporting the coils forming a magnetic circuit, and wherein the centre leg , which is parallel to the outer legs supporting the coils and which connects approximately the centres of the lateral outer legs , causes a magnetic short circuit between the connecting members and divides the magnetic circuit into two loops (200-A, 200-B), characterized in that the outer legs (230, 240, 240-A, 240-B, 240-C, 240-D) have a cross-section A1; the centre leg for the common portion has a cross-section A2 < 2 x A1, and the magnetic resistance R MA of at least one of the outer legs is higher than the magnetic resistance R MI of the centre leg, wherein R MA > 20 x R MI .
An electronic device comprising: a ground plane ; a receptacle configured to accommodate an external connector ; a first antenna radiator ; a second antenna radiator ; a feeding unit configured to feed electricity to the first antenna radiator ; a first switch configured to connect the first antenna radiator and the ground plane ; a second switch configured to selectively connect the feeding unit to the first antenna radiator or a first end of the second antenna radiator ; a third switch configured to connect the first antenna radiator and a second end of the second antenna radiator ; and a control circuit , which is electrically connected to at least one of the first switch , the second switch , and the third switch , wherein the control circuit is configured to short-circuit the first switch and the third switch , and to connect the second switch to the first end of the second antenna radiator , in response to the external connector being inserted into the receptacle . a ground plane ; a receptacle configured to accommodate an external connector ; a first antenna radiator ; a second antenna radiator ; a feeding unit configured to feed electricity to the first antenna radiator ; a first switch configured to connect the first antenna radiator and the ground plane ; a second switch configured to selectively connect the feeding unit to the first antenna radiator or a first end of the second antenna radiator ; a third switch configured to connect the first antenna radiator and a second end of the second antenna radiator ; and a control circuit , which is electrically connected to at least one of the first switch , the second switch , and the third switch , wherein the control circuit is configured to short-circuit the first switch and the third switch , and to connect the second switch to the first end of the second antenna radiator , in response to the external connector being inserted into the receptacle .
An exoskeleton device capable of assembly with an expandable instrument , comprising: an expandable section capable of placement over an expander of an expandable instrument , the expandable section including a plurality of struts , each strut extending along a length of the expandable section with the plurality of struts being positioned around a circumference of the expandable section , each strut of the plurality of struts including a plurality of sections, each section defined by a pair of parallel slits through the expandable section , each slit of the pair of parallel slits separating circumferentially adjacent sections of circumferentially adjacent struts of the plurality of struts , an arrangement of slits of the expandable section rendering the expandable section radially expandable and characterized in that , each strut is rotatable from a circumferentially disposed orientation to a more radial orientation such that an edge of the strut is exposed at an outer extent of the expandable section upon radial expansion of the expandable section .
An aggregation method, comprising: obtaining (S802') by a user equipment, UE, information of: a total number of slots to be aggregated for carrying uplink control information, UCI, and a structure of each slot; wherein the structure of each slot comprises: a number of symbols for carrying a Reference Signal, RS, a number of symbols for carrying UCI, a number of symbols for switching period, and a number of symbols for carrying downlink; aggregating (S804') by the UE, a plurality of slots according to the information of the total number of slots to be aggregated and the structure of each slot; and sending (S806') by the UE, physical uplink control channel, PUCCH, to a gNodeB, gNB, via the aggregated slots. obtaining (S802') by a user equipment, UE, information of: a total number of slots to be aggregated for carrying uplink control information, UCI, and a structure of each slot; wherein the structure of each slot comprises: a number of symbols for carrying a Reference Signal, RS, a number of symbols for carrying UCI, a number of symbols for switching period, and a number of symbols for carrying downlink; aggregating (S804') by the UE, a plurality of slots according to the information of the total number of slots to be aggregated and the structure of each slot; and sending (S806') by the UE, physical uplink control channel, PUCCH, to a gNodeB, gNB, via the aggregated slots.
A complex consisting of bromine trifluoride and at least one halogenated hydrogen metal.
A control method of cleaning equipment, the cleaning equipment is provided with an infrared sensor and an angular velocity sensor; characterized in that the control method comprises: acquiring a first ADC(analog to digital converter) value collected by means of the infrared sensor in real-time when the cleaning equipment is running straight, and controlling the cleaning equipment to stop running straight (S101) when the first ADC value is greater than a first preset value; controlling the cleaning equipment to turn in a preset direction (S102) and acquiring a second ADC value collected by means of the infrared sensor in real-time, and then controlling the cleaning equipment to stop turning once the second ADC value is less than a second preset value; calculating a first turn angle and a first running distance (S 103) based on angle data uploaded by means of the angular velocity sensor; wherein the angular velocity sensor is configured to collect an angle between a running direction of the cleaning equipment and an obstacle ahead; controlling the cleaning equipment to run straight forward for the first running distance and then stop running straight (S104), then controlling the cleaning equipment to turn the first turn angle in the preset direction (S105), and then controlling the cleaning equipment to run straight (S106). acquiring a first ADC(analog to digital converter) value collected by means of the infrared sensor in real-time when the cleaning equipment is running straight, and controlling the cleaning equipment to stop running straight (S101) when the first ADC value is greater than a first preset value; controlling the cleaning equipment to turn in a preset direction (S102) and acquiring a second ADC value collected by means of the infrared sensor in real-time, and then controlling the cleaning equipment to stop turning once the second ADC value is less than a second preset value; calculating a first turn angle and a first running distance (S 103) based on angle data uploaded by means of the angular velocity sensor; wherein the angular velocity sensor is configured to collect an angle between a running direction of the cleaning equipment and an obstacle ahead; controlling the cleaning equipment to run straight forward for the first running distance and then stop running straight (S104), then controlling the cleaning equipment to turn the first turn angle in the preset direction (S105), and then controlling the cleaning equipment to run straight (S106).
A roof window comprising a frame having a plurality of frame members including a top member, two side members and a bottom member , a sash having a plurality of sash members including a top member, two side members and a bottom member , of which at least the sash top member includes a separate sash top unit forming part of or constituting the sash top member , and at least one ventilation device including a plurality of ventilation openings to provide ventilation between an exterior side and an interior side of the window, wherein said at least one ventilation device is accommodated in the sash top unit , wherein said at least one ventilation device is releasably connected to the sash top unit by non-positive engagement means , wherein the at least one ventilation device has a longitudinal configuration extending between a first end and a second end , a length dimension being defined between the first and second ends substantially in parallel with a length direction of the sash top member , a height dimension perpendicular to the length dimension substantially in parallel with a width direction of the sash top member, and a thickness dimension perpendicular to the length dimension substantially in parallel with a thickness direction of the sash top member, wherein said non-positive engagement means is positioned at one or both of said first and second end and comprises at least one biasing device connected to the ventilation device and contacting the top sash unit of the sash top member in frictional engagement, and wherein the top sash unit is provided with a track to accommodate the ventilation device , and the top sash unit is provided with a plurality of ventilation openings to match the ventilation openings of the ventilation device , characterised in that, the at least one biasing device of the i 2. non-positive engagement means of the at least one ventilation device comprises a spring lever having at least one engagement portion to contact a corresponding flange portion on the top sash unit in frictional engagement, and at least one fastening portion for fastening the spring lever to the remaining parts of the at least one ventilation device .
An electrical connecting device, comprising: a base ; a locking member (230; 330; 430) rotatably disposed on the base and configured to rotate about an axis (A) to a locked position along a first rotational direction and to an unlocked position along a second rotational direction opposite to the first rotational direction (A1), wherein an engaging portion is provided at a peripheral edge of the locking member (230; 330; 430); a linkage (240; 440) rotatably disposed on the base and comprising an abutting portion configured to abut against the peripheral edge , wherein when the locking member (230; 330; 430) is rotated to the locked position, the abutting portion is moved to and is engaged with the engaging portion accompanied with a rotation of the linkage (240; 440); a detector disposed on the base and configured to detect the engagement between the abutting portion and the engaging portion . a base ; a locking member (230; 330; 430) rotatably disposed on the base and configured to rotate about an axis (A) to a locked position along a first rotational direction and to an unlocked position along a second rotational direction opposite to the first rotational direction (A1), wherein an engaging portion is provided at a peripheral edge of the locking member (230; 330; 430); a linkage (240; 440) rotatably disposed on the base and comprising an abutting portion configured to abut against the peripheral edge , wherein when the locking member (230; 330; 430) is rotated to the locked position, the abutting portion is moved to and is engaged with the engaging portion accompanied with a rotation of the linkage (240; 440); a detector disposed on the base and configured to detect the engagement between the abutting portion and the engaging portion .