mhurhangee/ep-ind-claims huggingface dataset:
A one-gate screw compressor comprising: a screw rotor having an outer peripheral surface with a plurality of screw grooves, and configured to be rotated; and one gate rotor having a plurality of teeth, a ratio T/S of the number T of the teeth to the total number S of the screw grooves being greater than or equal to 2.5, the gate rotor meshing with the screw rotor, rotation of the screw rotor at an angle greater than 180° allowing the screw compressor to perform a stroke from start of compression to completion of discharge, a speed adjuster configured to adjust a rotational speed of the screw rotor; and an electric motor configured to rotate the screw rotor, the one-gate screw compressor being characterised by: the speed adjuster being configured to allow the rotational speed of the screw rotor to be higher than a rotational speed in a case when a power supply voltage at a rated frequency is applied to the electric motor, a total number S of the screw grooves being 3 or 4, and a number T of the teeth of the gate rotor is in a range of 10 to 15, and a maximum rotational speed of the screw rotor at rated output is higher than 3000 r/min. a screw rotor having an outer peripheral surface with a plurality of screw grooves, and configured to be rotated; and one gate rotor having a plurality of teeth, a ratio T/S of the number T of the teeth to the total number S of the screw grooves being greater than or equal to 2.5, the gate rotor meshing with the screw rotor, rotation of the screw rotor at an angle greater than 180° allowing the screw compressor to perform a stroke from start of compression to completion of discharge, a speed adjuster configured to adjust a rotational speed of the screw rotor; and an electric motor configured to rotate the screw rotor, the one-gate screw compressor being characterised by: the speed adjuster being configured to allow the rotational speed of the screw rotor to be higher than a rotational speed in a case when a power supply voltage at a rated frequency is applied to the electric motor, a total number S of the screw grooves being 3 or 4, and a number T of the teeth of the gate rotor is in a range of 10 to 15, and a maximum rotational speed of the screw rotor at rated output is higher than 3000 r/min. the speed adjuster being configured to allow the rotational speed of the screw rotor to be higher than a rotational speed in a case when a power supply voltage at a rated frequency is applied to the electric motor, a total number S of the screw grooves being 3 or 4, and a number T of the teeth of the gate rotor is in a range of 10 to 15, and a maximum rotational speed of the screw rotor at rated output is higher than 3000 r/min.
An isolated nucleic acid molecule comprising a nucleotide sequence at least 95%, at least 96%, at least 97%, at least 98%, at least 99%, or 100% identical to SEQ ID NO:2, wherein the nucleotide sequence encodes a polypeptide with Factor VIII activity.
Furniture with a body and with a device (3, 24, 39) for attaching a carrier element for objects in the body of the furniture, in particular stove with a device for attaching a food carrier in the stove, wherein the device (3, 24, 39) has a pivoting member (13, 25, 26, 40) for arranging the carrier element and attachment means, wherein by means of the attachment means the pivoting member (13, 25, 26, 40) is attached in the body on a wall section of the body, wherein the pivoting member (13, 25, 26, 40) comprises two pivot arms (14, 15) which are rotatable relative to one another, wherein the pivoting member (13, 25, 26, 40) has three pivot axes (16, 20, 22), wherein a first pivot arm is arranged rotatably on the body by a first pivot axis, wherein the two pivot arms (14, 15) are arranged rotatably on one another via a second second pivot axis, wherein on a second pivot arm a third pivot axis is provided, wherein in the region of one end of the second pivot arm the carrier element can be arranged by the third pivot axis rotatably to the second pivot arm, wherein the pivot axes (16, 20, 22) are aligned parallel to a side wall (7, 8) and the rear wall, and wherein during a pivoting and/or pushing movement of the pivoting member (13, 25, 26, 40) a carrier element arranged thereon can be moved in a single exclusively horizontal plane of movement, whereby the carrier element arranged on the pivot member (13, 25, 26, 40) can be moved into a cavity of the body or out of the latter, characterised in that the pivoting member (13, 25, 26, 40) is mounted at a first end of the first pivot arm on a vertical adjustment device of the device (3, 24, 39), wherein the vertical adjustment device has a grid so that the pivoting member (13, 25, 26, 40) can be arranged in different planes of movement on the body, wherein the planes of movement are predefined by the grid of the vertical adjustment device.
A method of manufacturing a rubber composite, the method comprising: a reel installation step of installing a reel group as multiple reels each having two or three steel cords wound, in a steel cord supplying device; a pulling-out step of pulling out the two or three steel cords wound on each reel by the steel cord supplying device, from the reel group; an arranging step of, for a steel cord group as multiple steel cords pulled out from the reel group, arranging the steel cords constituting the steel cord group in a row in a cross section perpendicular to a longitudinal direction of the steel cords; and a rubber composite manufacturing step of embedding the steel cord group into rubber to manufacture the rubber composite, wherein a steel cord is a single-wire steel cord, and characterised in that; when supplying to the arranging step, tension is applied to each of the steel cords that constitute the steel cord group, where the tension is greater than or equal to 6.0% and less than or equal to 9.0% of a breaking load per steel cord. a reel installation step of installing a reel group as multiple reels each having two or three steel cords wound, in a steel cord supplying device; a pulling-out step of pulling out the two or three steel cords wound on each reel by the steel cord supplying device, from the reel group; an arranging step of, for a steel cord group as multiple steel cords pulled out from the reel group, arranging the steel cords constituting the steel cord group in a row in a cross section perpendicular to a longitudinal direction of the steel cords; and a rubber composite manufacturing step of embedding the steel cord group into rubber to manufacture the rubber composite, wherein a steel cord is a single-wire steel cord, and characterised in that; when supplying to the arranging step, tension is applied to each of the steel cords that constitute the steel cord group, where the tension is greater than or equal to 6.0% and less than or equal to 9.0% of a breaking load per steel cord.
A method for communicating data units between radio stations over a radio interface, where a radio communications link is established between the radio stations and a semi-persistent radio resource is allocated to support data transmission over the communications link, wherein the semi-persistent allocation is signaled once, and the resource is then available at regular periodic intervals without further assignment; signaling, the method comprising the following steps: associating the semi-persistent radio resource with a corresponding hybrid automatic repeat request, HARQ, process identifier, wherein said HARQ process identifier is not used for dynamic scheduling of data; requesting retransmission of a data unit transmitted using the semi-persistent radio resource; receiving a retransmission of the data unit on a dynamically scheduled radio resource that is different from the semi-persistent radio resource, wherein the scheduling assignment for the retransmission includes the HARQ process identifier associated with the semi-persistent radio resource; and using the HARQ process identifier associated with the semi-persistent resource to match the retransmission of the data unit dynamically scheduled on the communications link with the requested data unit retransmission. associating the semi-persistent radio resource with a corresponding hybrid automatic repeat request, HARQ, process identifier, wherein said HARQ process identifier is not used for dynamic scheduling of data; requesting retransmission of a data unit transmitted using the semi-persistent radio resource; receiving a retransmission of the data unit on a dynamically scheduled radio resource that is different from the semi-persistent radio resource, wherein the scheduling assignment for the retransmission includes the HARQ process identifier associated with the semi-persistent radio resource; and using the HARQ process identifier associated with the semi-persistent resource to match the retransmission of the data unit dynamically scheduled on the communications link with the requested data unit retransmission.
A method of a transmitter, the method comprising: encoding a signaling data; identifying a type of the signaling data to be transmitted to a receive device, the type of the signaling data corresponding to a protection level of the signaling data; determining a first parameter and a second parameter based on the type of the signaling data; determining a number of puncture bits using the first parameter and the second parameter; and puncturing the encoded signaling data according to the number of puncture bits, wherein the first parameter is related to a ratio of a number of bits to be punctured to a number of bits to be shortened, and is multiplied by a number of shortened bits to generate a multiplication result, and wherein the second parameter is an integer value that is added to the multiplication result to determine the number of puncture bits. encoding a signaling data; identifying a type of the signaling data to be transmitted to a receive device, the type of the signaling data corresponding to a protection level of the signaling data; determining a first parameter and a second parameter based on the type of the signaling data; determining a number of puncture bits using the first parameter and the second parameter; and puncturing the encoded signaling data according to the number of puncture bits, wherein the first parameter is related to a ratio of a number of bits to be punctured to a number of bits to be shortened, and is multiplied by a number of shortened bits to generate a multiplication result, and
A method of making a coated abrasive article, comprising: filling a plurality of formed abrasive particles into a plurality of apertures of a first precision apertured screen to position the formed abrasive particles into a specified z-direction rotational orientation, positioning a coated backing having a make layer parallel to the first precision apertured screen surface containing the plurality of formed abrasive particles with the make layer facing the formed abrasive particles in the apertures; bringing the coated backing into contact with the formed abrasive particles in the first precision apertured screen to adhere the formed abrasive particles to the make layer; and removing the first precision apertured screen, thereby leaving the formed abrasive particles having the specified z-direction rotational orientation on the coated backing, wherein the specified z-direction rotational orientation of each of the plurality of formed ceramic abrasive particles is about a z-axis passing through the formed ceramic abrasive particle and through the backing at a 90 degree angle to the backing. filling a plurality of formed abrasive particles into a plurality of apertures of a first precision apertured screen to position the formed abrasive particles into a specified z-direction rotational orientation, positioning a coated backing having a make layer parallel to the first precision apertured screen surface containing the plurality of formed abrasive particles with the make layer facing the formed abrasive particles in the apertures; bringing the coated backing into contact with the formed abrasive particles in the first precision apertured screen to adhere the formed abrasive particles to the make layer; and removing the first precision apertured screen, thereby leaving the formed abrasive particles having the specified z-direction rotational orientation on the coated backing, wherein the specified z-direction rotational orientation of each of the plurality of formed ceramic abrasive particles is about a z-axis passing through the formed ceramic abrasive particle and through the backing at a 90 degree angle to the backing.
A fingerprint acquisition apparatus, characterized by comprising: a fingerprint sensor, an optical sensor and a signal processing unit; the fingerprint sensor and the optical sensor connect to the signal processing unit respectively; wherein the optical sensor is configured to emit an optical signal at a first frequency and receive a reflected signal formed after the optical signal is emitted to a human finger and after the human finger reflects the optical signal; the optical sensor is further configured to emit an optical signal at a second frequency when the signal processing unit determines that the strength of the reflected signal at the first frequency is greater than a first predetermined threshold and receive a reflected signal formed after the optical signal at the second frequency is emitted to a human finger and after the human finger reflects the optical signal; and the signal processing unit is configured to determine whether the human finger is in stable contact with the fingerprint acquisition apparatus according to stability of the strength of the reflected signal at the second frequency; and activate the fingerprint sensor when the signal processing unit determines that the human finger is in stable contact with the fingerprint acquisition apparatus; and the fingerprint sensor is configured to acquire a fingerprint of the human finger after being activated; wherein the second frequency is higher than the first frequency.
A personnel access system comprising: at least one mobile wireless communications device comprising a first near field communication device, a wireless device, and a first controller coupled with said first NFC device and said wireless device, the first controller being configured to generate an access request; an access control device associated with a personnel access position, the access control device comprising a second NFC device configured to receive the access request from said first NFC device based upon proximity therewith, and a second controller coupled with said second NFC device, the second controller being configured to generate, in response to receiving the access request, a verification request for the at least one mobile wireless communications device based upon the received access request; and a verification device configured to receive the verification request from said access control device and, based thereon, send a verification message to said at least one mobile wireless communications device; said first controller being further configured to receive the verification message via said wireless device and, based thereon, generate verification data; said second controller being further configured to selectively grant personnel access based upon the verification data. at least one mobile wireless communications device comprising a first near field communication device, a wireless device, and a first controller coupled with said first NFC device and said wireless device, the first controller being configured to generate an access request; a first near field communication device, a wireless device, and a first controller coupled with said first NFC device and said wireless device, the first controller being configured to generate an access request; an access control device associated with a personnel access position, the access control device comprising a second NFC device configured to receive the access request from said first NFC device based upon proximity therewith, and a second controller coupled with said second NFC device, the second controller being configured to generate, in response to receiving the access request, a verification request for the at least one mobile wireless communications device based upon the received access request; and a second NFC device configured to receive the access request from said first NFC device based upon proximity therewith, and a second controller coupled with said second NFC device, the second controller being configured to generate, in response to receiving the access request, a verification request for the at least one mobile wireless communications device based upon the received access request; and a verification device configured to receive the verification request from said access control device and, based thereon, send a verification message to said at least one mobile wireless communications device; said first controller being further configured to receive the verification message via said wireless device and, based thereon, generate verification data; said second controller being further configured to selectively grant personnel access based upon the verification data.
A surfing equipment comprising a surfboard, a battery module, a propulsion module, a signal transmitter, a signal receiver, and a speed controller; wherein the battery module and the propulsion module are respectively disposed on opposite surfaces of the surfboard, and the battery module and the propulsion module are connected to each other via a through hole in the surfboard; and wherein the speed controller is disposed in the propulsion module, the speed controller is electrically coupled to the signal receiver, and the speed controller is configured to be electrically coupled to a control device of the surfing equipment; characterised in that the signal transmitter is disposed within the battery module and located in a first area of the battery module facing the propulsion module, the first area faces the through hole, the signal transmitter is electrically coupled to a battery in the battery module; wherein the signal receiver is disposed in the propulsion module and faces the signal transmitter to receive a signal sent by the signal transmitter by means of a wireless connection; wherein the signal transmitter is an infrared transmitter, and the signal receiver is an infrared receiver; and wherein the first area is provided with a first transparent glass, a second area of the propulsion module facing the first area is provided with a second transparent glass, and the signal transmitter is disposed to face the first transparent glass and the signal receiver is disposed to face the second transparent glass.
An assembly for providing a rugged interface between an electronic host device and an electronic add-on module, comprising: the host device including a host device body with a side including a docking bay, wherein the docking bay includes a receiving surface that is recessed a distance from the side of the host device body to define a depth of the docking bay and wherein the host device includes a hook mating feature with a body protruding outward from the docking bay; and the add-on module including a module body with a top side and a bottom side, wherein the module body is positionable within the docking bay with the top side of the module body abutting the receiving surface of the docking bay, wherein the module body includes a hook extending upward from an end of the top side that is adapted to receive the body of the hook mating feature when the module body is positioned within the docking bay to block rotation of the module body out of the docking bay; wherein the module body further comprises at least one fastener (280; 282) with a threaded end extending outward from the top side of the module body, wherein the at least one fastener is provided in a first end of the module body opposite a second end of the module body containing the hook, and wherein the receiving surface of the docking bay includes one or more threaded holes for receiving the threaded end of the at least one fastener when the module body is positioned within the docking bay. the host device including a host device body with a side including a docking bay, wherein the docking bay includes a receiving surface that is recessed a distance from the side of the host device body to define a depth of the docking bay and wherein the host device includes a hook mating feature with a body protruding outward from the docking bay; and the add-on module including a module body with a top side and a bottom side, wherein the module body is positionable within the docking bay with the top side of the module body abutting the receiving surface of the docking bay, wherein the module body includes a hook extending upward from an end of the top side that is adapted to receive the body of the hook mating feature when the module body is positioned within the docking bay to block rotation of the module body out of the docking bay; wherein the module body further comprises at least one fastener (280; 282) with a threaded end extending outward from the top side of the module body, wherein the at least one fastener is provided in a first end of the module body opposite a second end of the module body containing the hook, and wherein the receiving surface of the docking bay includes one or more threaded holes for receiving the threaded end of the at least one fastener when the module body is positioned within the docking bay.
Multi-level furnace for the thermal treatment of a material flow in at least two process chambers comprising a. the at least two process chambers arranged one above another, each having at least two floors for the levels, and b. one or more transfer devices for transferring the treated material flow from an upper process chamber to a lower process chamber, the two process chambers (1, 2) being separated gastightly from one another, characterized in that the transfer device has means for forming a column of material in the transitional region between the upper and the lower process space (1, 2), wherein the gastight separation of the two process chambers (1, 2) is formed by means of the column of material and wherein the means for forming a column of material comprise at least one delivery unit (21.1) or at least one chute (24.1) or a slide and the at least one delivery unit (21.1) or the at least one chute (24.1) or the slide at the same time forms a material output device for the upper process chamber for discharging at least part of the material flow from the multi-level furnace. a. the at least two process chambers arranged one above another, each having at least two floors for the levels, and b. one or more transfer devices for transferring the treated material flow from an upper process chamber to a lower process chamber, the two process chambers (1, 2) being separated gastightly from one another,
Hand-held pulling and compressing device for driving interchangeable tools, with - a drive unit comprising a battery-operated electric motor, - a screw drive with a threaded spindle connected to the electric motor and mounted rotatably on a housing body, and a threaded nut mounted rotatably on the threaded spindle via a bearing unit and non-rotatably on the housing body, and - a coupling unit connected to a first tool holder for transmitting tensile and compressive forces resulting from the direction of rotation of the threaded spindle from the threaded nut to the first tool holder, characterized in that the screw drive is designed to transmit rotational movements of the threaded spindle to a second tool holder. - a drive unit comprising a battery-operated electric motor, - a screw drive with a threaded spindle connected to the electric motor and mounted rotatably on a housing body, and a threaded nut mounted rotatably on the threaded spindle via a bearing unit and non-rotatably on the housing body, and - a coupling unit connected to a first tool holder for transmitting tensile and compressive forces resulting from the direction of rotation of the threaded spindle from the threaded nut to the first tool holder,