mhurhangee/ep-ind-claims huggingface dataset:
A method of automatic repeat request for a reverse link of a high rate packet data code division multiple access wireless communication system, the method comprising, at an Access Network: receiving a first set of slots of a first packet from an Access Terminal, wherein the first packet includes the first set of slots and a second set of slots; receiving a first set of slots of a second packet from the Access Terminal immediately after the first set of slots of the first packet is received; attempting to decode the received first set of slots of the first packet; determining whether the received first set of slots of the first packet has been successfully decoded; when decoding the received first set of slots of the first packet is successful, sending an ACK to the Access Terminal, and receiving a first set of slots of a third packet upon sending the ACK; when decoding the received first set of slots of the first packet is unsuccessful, sending a NAK to the Access Terminal, and receiving a second set of slots of the first packet from the Access Terminal upon sending the NAK, and attempting to decode a combination of the received first set of slots of the first packet and the received second set of slots of the first packet; and wherein the ACK and the NAK, respectively, is sent on a binary phase-shift keying modulated forward link ACK channel, wherein the ACK or the NAK is sent in a phase orthogonal to the phase of a reverse link power control bit sent on a reverse link power control channel. receiving a first set of slots of a first packet from an Access Terminal, wherein the first packet includes the first set of slots and a second set of slots; receiving a first set of slots of a second packet from the Access Terminal immediately after the first set of slots of the first packet is received; attempting to decode the received first set of slots of the first packet; determining whether the received first set of slots of the first packet has been successfully decoded; when decoding the received first set of slots of the first packet is successful, sending an ACK to the Access Terminal, and receiving a first set of slots of a third packet upon sending the ACK; when decoding the received first set of slots of the first packet is unsuccessful, sending a NAK to the Access Terminal, and receiving a second set of slots of the first packet from the Access Terminal upon sending the NAK, and attempting to decode a combination of the received first set of slots of the first packet and the received second set of slots of the first packet; and wherein the ACK and the NAK, respectively, is sent on a binary phase-shift keying modulated forward link ACK channel, wherein the ACK or the NAK is sent in a phase orthogonal to the phase of a reverse link power control bit sent on a reverse link power control channel.
A fastening device for releasable connection to a perforated rail, preferably seat rail, of an aircraft, wherein the perforated rail comprises rail holes spaced apart from one another in the longitudinal direction by a grid dimension and connected to one another by rail slots, wherein the fastening device comprises: - a housing made of aluminum, - at least one locking head portion fixedly connected to the housing, wherein the locking head portion is insertable into a rail hole of the perforated rail and displaceable along the longitudinal direction of the perforated rail to a locking position in which the locking head portion is engaged with a slot portion of the perforated rail in which a rail slot extends and wherein the locking head portion is a portion of a steel locking pin fixed in the housing; - at least one shear pin, which is guided in the housing so as to be non-rotatable and axially displaceable relative to the housing, wherein an outer contour portion of the cross-section of the shear pin is aligned with the locking head portion being curved inwards and wherein the shear pin can be brought into engagement with a rail hole of the perforated rail in a locking position of the fastening device by axial displacement; - an actuating pin, which is rotatably arranged relative to the housing and connected to the shear pin in such a way that a rotation of the actuating pin causes an axial displacement of the shear pin relative to the housing. - a housing made of aluminum, - at least one locking head portion fixedly connected to the housing, wherein the locking head portion is insertable into a rail hole of the perforated rail and displaceable along the longitudinal direction of the perforated rail to a locking position in which the locking head portion is engaged with a slot portion of the perforated rail in which a rail slot extends and wherein the locking head portion is a portion of a steel locking pin fixed in the housing; wherein the locking head portion is insertable into a rail hole of the perforated rail and displaceable along the longitudinal direction of the perforated rail to a locking position in which the locking head portion is engaged with a slot portion of the perforated rail in which a rail slot extends and wherein the locking head portion is a portion of a steel locking pin fixed in the housing; - at least one shear pin, which is guided in the housing so as to be non-rotatable and axially displaceable relative to the housing, wherein an outer contour portion of the cross-section of the shear pin is aligned with the locking head portion being curved inwards and wherein the shear pin can be brought into engagement with a rail hole of the perforated rail in a locking position of the fastening device by axial displacement; - an actuating pin, which is rotatably arranged relative to the housing and connected to the shear pin in such a way that a rotation of the actuating pin causes an axial displacement of the shear pin relative to the housing.
A method of controlling dosage of drainage aid to brown stock of a brown stock washing process, the method comprising: dosing the drainage aid to brown stock according to at least two variables: brown stock washer drum speed and brown stock washer stock flow; the drainage aid dosed according to a comparison of the brown stock washer drum speed to the brown stock washer stock flow and wherein this comparison is performed using a first linear control formula and wherein the first linear control formula is Formula A: dad = m 1 * DS − m 2 * SF + b 2 + b 1 wherein dad = drainage aid dosage, ml = a first slope, DS = brown stock washer drum speed, m2 = a second slope, SF = brown stock washer stock flow, bI = a first offset, and b2 = a second offset. dosing the drainage aid to brown stock according to at least two variables: brown stock washer drum speed and brown stock washer stock flow; the drainage aid dosed according to a comparison of the brown stock washer drum speed to the brown stock washer stock flow and wherein this comparison is performed using a first linear control formula and wherein the first linear control formula is Formula A: dad = m 1 * DS − m 2 * SF + b 2 + b 1 wherein dad = drainage aid dosage, ml = a first slope, DS = brown stock washer drum speed, m2 = a second slope, SF = brown stock washer stock flow, bI = a first offset, and b2 = a second offset.
A histology tissue embedding apparatus including: a reservoir for an embedding medium; a nozzle connected to the reservoir for dispensing a tissue embedding medium into a tissue mould; a trigger means for controlling the operation of the nozzle; and an arm protruding from a main body of the apparatus, wherein the arm has a front end distal from the apparatus and a back end adjacent to the apparatus, wherein the nozzle and the trigger means are located at the front end of the arm, and wherein the trigger means is positioned behind the nozzle; a working area underneath the arm in which a tissue mould can be placed, wherein the working area includes an area underneath the nozzle and other areas to both sides of the arm and to the front end of the arm adjacent to the area underneath the nozzle; wherein the arm incorporates: one or more LED lights (40, 41, 42) mounted on the arm to illuminate an area under the nozzle, wherein said LED lights (40, 41, 42) are positioned in front of the trigger means and in front of and/or to the sides of the nozzle; and one or more LED lights (43, 44) mounted on the arm further back from the nozzle and behind the trigger means to provide more general illumination of the working area. a reservoir for an embedding medium; a nozzle connected to the reservoir for dispensing a tissue embedding medium into a tissue mould; a trigger means for controlling the operation of the nozzle; and an arm protruding from a main body of the apparatus, wherein the arm has a front end distal from the apparatus and a back end adjacent to the apparatus, wherein the nozzle and the trigger means are located at the front end of the arm, and wherein the trigger means is positioned behind the nozzle; a working area underneath the arm in which a tissue mould can be placed, wherein the working area includes an area underneath the nozzle and other areas to both sides of the arm and to the front end of the arm adjacent to the area underneath the nozzle; wherein the arm incorporates: one or more LED lights (40, 41, 42) mounted on the arm to illuminate an area under the nozzle, wherein said LED lights (40, 41, 42) are positioned in front of the trigger means and in front of and/or to the sides of the nozzle; and one or more LED lights (43, 44) mounted on the arm further back from the nozzle and behind the trigger means to provide more general illumination of the working area. one or more LED lights (40, 41, 42) mounted on the arm to illuminate an area under the nozzle, wherein said LED lights (40, 41, 42) are positioned in front of the trigger means and in front of and/or to the sides of the nozzle; and one or more LED lights (43, 44) mounted on the arm further back from the nozzle and behind the trigger means to provide more general illumination of the working area.
A gear train lubricating device comprising: a shroud covering a gear train including a plurality of gears (G1-G5) meshing with each other and being integrally formed with respective shafts (11, 13A-13D) that are all parallel with one another and parallel to an axial direction, the shroud including an outer peripheral wall covering the gear train from radially outward, side walls connected to both respective side edges of the outer peripheral wall, the side walls being opposed to each other in the axial direction so as to cover both respective side faces of the gear train, an oil supply nozzle configured to supply oil to a meshing position of the gear train, and oil-drain ports through which the oil is discharged from the shroud; a housing configured to cover the shroud, the housing including at its lower part, a draw-out port through which the oil discharged from the oil-drain ports is drawn to outside of the housing, the axial direction coincides with the axial direction of the shroud and the housing; and guide members provided between the shroud and the housing and configured to guide the oil discharged from the respective oil-drain ports of the shroud such that the oil flows downward through space between the shroud and the housing, characterized in that both ends of each guide member in the axial direction are in contact with or in close proximity to respective inner wall surfaces of the housing, said both ends of each guide member being opposed to the respective inner wall surfaces of the housing in the axial direction. a shroud covering a gear train including a plurality of gears (G1-G5) meshing with each other and being integrally formed with respective shafts (11, 13A-13D) that are all parallel with one another and parallel to an axial direction, the shroud including an outer peripheral wall covering the gear train from radially outward, side walls connected to both respective side edges of the outer peripheral wall, the side walls being opposed to each other in the axial direction so as to cover both respective side faces of the gear train, an oil supply nozzle configured to supply oil to a meshing position of the gear train, and oil-drain ports through which the oil is discharged from the shroud; a housing configured to cover the shroud, the housing including at its lower part, a draw-out port through which the oil discharged from the oil-drain ports is drawn to outside of the housing, the axial direction coincides with the axial direction of the shroud and the housing; and guide members provided between the shroud and the housing and configured to guide the oil discharged from the respective oil-drain ports of the shroud such that the oil flows downward through space between the shroud and the housing, characterized in that both ends of each guide member in the axial direction are in contact with or in close proximity to respective inner wall surfaces of the housing, said both ends of each guide member being opposed to the respective inner wall surfaces of the housing in the axial direction.
A method of using an umbilical between a surface location and an underwater location of an underwater fluid extraction well system, the umbilical carrying an electrical power conductor for transmitting to the underwater location electrical power from a source at the surface location at a first frequency, for use by underwater equipment of the well system, the method characterised by the steps of: detecting that the umbilical has been compromised by the ingress of water and, in response thereto: converting electrical power from the source to electrical power at a second frequency, lower than the first frequency, or to DC electrical power; transmitting said electrical power at the second frequency or said DC electrical power to the underwater location via the conductor; and at the underwater location, converting said electrical power at the second frequency or said DC electrical power to electrical power at a frequency used by the underwater equipment of the well system. detecting that the umbilical has been compromised by the ingress of water and, in response thereto: converting electrical power from the source to electrical power at a second frequency, lower than the first frequency, or to DC electrical power; transmitting said electrical power at the second frequency or said DC electrical power to the underwater location via the conductor; and at the underwater location, converting said electrical power at the second frequency or said DC electrical power to electrical power at a frequency used by the underwater equipment of the well system. converting electrical power from the source to electrical power at a second frequency, lower than the first frequency, or to DC electrical power; transmitting said electrical power at the second frequency or said DC electrical power to the underwater location via the conductor; and at the underwater location, converting said electrical power at the second frequency or said DC electrical power to electrical power at a frequency used by the underwater equipment of the well system.
A device for the culturing and/or isolation and/or detection and/or identification and/or counting of at least one target microorganism in a sample liable to contain it, characterized in that it comprises a support and a nutrient medium; said support comprising: • a hydrophilic fibrous substrate, • at least one porous layer in contact with one of the faces of the fibrous substrate, comprising a pigment or a mixture of pigments and at least one binder, said pigment having a size of less than 5 μm and the amount of said pigment or said mixture of pigments being between 50 and 97% by dry weight, with respect to the dry weight of the porous layer; said nutrient medium being included in the fibrous substrate. • a hydrophilic fibrous substrate, • at least one porous layer in contact with one of the faces of the fibrous substrate, comprising a pigment or a mixture of pigments and at least one binder, said pigment having a size of less than 5 μm and the amount of said pigment or said mixture of pigments being between 50 and 97% by dry weight, with respect to the dry weight of the porous layer;
An expandable eutectic alloy based downhole tool (10, 10a, 40), said tool comprising: a tubular body (12, 42) configured to be expanded when an expanding tool is run through the inside thereof; an outer sleeve (14, 19, 44), wherein the tubular body and the outer sleeve together define a housing with a volume within which eutectic alloy (13, 18, 43)is retained; and wherein the outer sleeve (12, 42) has openings (15, 20), or weakened regions that form openings when in contact with melted alloy, that provide a focused outlet for the alloy when it is melted; and wherein the eutectic alloy (13, 18, 43) retained within the housing does not fill the volume of the housing defined by the tubular body (12, 42) and the outer sleeve (14, 19, 44) in order to provide a space within the housing that allows the tubular body (12, 42) to be expanded without necessarily expanding the outer sleeve (14, 19, 44). a tubular body (12, 42) configured to be expanded when an expanding tool is run through the inside thereof; an outer sleeve (14, 19, 44), wherein the tubular body and the outer sleeve together define a housing with a volume within which eutectic alloy (13, 18, 43)is retained; and wherein the outer sleeve (12, 42) has openings (15, 20), or weakened regions that form openings when in contact with melted alloy, that provide a focused outlet for the alloy when it is melted; and wherein the eutectic alloy (13, 18, 43) retained within the housing does not fill the volume of the housing defined by the tubular body (12, 42) and the outer sleeve (14, 19, 44) in order to provide a space within the housing that allows the tubular body (12, 42) to be expanded without necessarily expanding the outer sleeve (14, 19, 44).
A flip-up table, comprising: a supporting shaft; a top board body being movable to a use position and to a stored position; a cam which is connected to the top board body and swingable about the supporting shaft as the top board body is moved; a first leg which is connected to the supporting shaft, and configured to support the top board body when the top board body is in the use position; and a second leg which is movable with respect to the first leg, and configured to support the top board body via a supporting surface when the top board body is in the stored position; wherein the supporting surface is configured to face a facing portion of the cam when the top board body is in the use position, and the supporting surface is in contact with a contact portion of the cam when the top board body is in the stored position, a distance (g) from the supporting shaft to the contact portion is longer than a distance (h) from the supporting shaft to the facing portion, and the second leg is stored in the first leg. a supporting shaft; a top board body being movable to a use position and to a stored position; a cam which is connected to the top board body and swingable about the supporting shaft as the top board body is moved; a first leg which is connected to the supporting shaft, and configured to support the top board body when the top board body is in the use position; and a second leg which is movable with respect to the first leg, and configured to support the top board body via a supporting surface when the top board body is in the stored position;
A buoyancy control device for scuba diving comprising at least two shoulder straps, each shoulder strap having an upper portion and a lower portion joined by a closing buckle, said buckle comprising a male buckle element and a female buckle element having a first connection means for connecting to said upper portion of said shoulder strap and a second connection means for connecting to said male buckle element,said female buckle element comprising a first part having said first connection means, a second part having said second connection means, and an articulated connection pin for connecting said first part to said second part, characterized in that said first part and said second part of said female buckle element have cooperating means (510, 610) for opposing the tensile forces of the shoulder strap acting on said female buckle, said cooperating means (510, 610) being operative when said articulated connection pin undergoes an elastic deformation as a result of said tensile forces.
An apparatus for wireless communication, comprising: means for generating an information block comprising information bits and frozen bits; means for generating a mask sequence based on a plurality of parameters, the plurality of parameters comprising at least two parameters selected from a set of parameters comprising a transmitting-device-specific sequence, a receiving-device-specific sequence, and time-related information; means for masking the frozen bits with the mask sequence; means for encoding the information block utilizing polar coding; and means for transmitting the encoded information block via the transceiver. means for generating an information block comprising information bits and frozen bits; means for generating a mask sequence based on a plurality of parameters, the plurality of parameters comprising at least two parameters selected from a set of parameters comprising a transmitting-device-specific sequence, a receiving-device-specific sequence, and time-related information; means for masking the frozen bits with the mask sequence; means for encoding the information block utilizing polar coding; and means for transmitting the encoded information block via the transceiver.
A battery temperature control device, comprising: a battery module; a temperature control unit configured to adjust a temperature of the battery module; a battery pack case housing the battery module and the temperature control unit, wherein the temperature control unit includes, disposed from the upstream side of an air flow, an evaporator configured to perform heat exchange using refrigerant of a vehicle cabin air conditioner, a blower configured to recirculate battery case interior air, a fin member, and a duct that configured to supply air to the battery module, characterized in that the fin member is a Positive Temperature Coefficient heater including mesh fins. a battery module; a temperature control unit configured to adjust a temperature of the battery module; a battery pack case housing the battery module and the temperature control unit, wherein the temperature control unit includes, disposed from the upstream side of an air flow, an evaporator configured to perform heat exchange using refrigerant of a vehicle cabin air conditioner, a blower configured to recirculate battery case interior air, a fin member, and a duct that configured to supply air to the battery module, characterized in that the fin member is a Positive Temperature Coefficient heater including mesh fins.
A food processor having a lower standing surface, a rear side and a front side, wherein the front side, starting from the highest location of the food processor assigned to the rear side, is formed obliquely in relation to a vertical and a holder for a cooking vessel is formed in the front side, wherein, furthermore, freely projecting rod parts are formed in an upper region of the food processor, wherein the front ends of the rod parts are arranged on the same horizontal plane (E') and are set back toward the rear side of the food processor with respect to a furthest-forward projecting extent, characterized in that the set-back amount (f) corresponds to 25 % to 50 % of the largest extent (t) of the food processor as seen in the depthwise direction in the standing-surface region of the food processor, wherein the amount (f), at the same time, corresponds to approximately half the horizontal distance (d) between the longitudinal center axes (y) of the rod parts, wherein, furthermore, the contour of the front side is always rounded in the region of the rod parts.