mhurhangee/ep-ind-claims huggingface dataset:
A molded foam article made in a mold, the article including a plurality of glass fibers dispersed in a polymer matrix that is micro cellular and exhibits a void volume, wherein: the article includes at least one portion having a cross-sectional dimension of no more than 2.54 mm (0.100 inch); and characterized in that: at least 10% of the total number of fibers in the molded article have a length greater than 0.55 mm; and yet further characterized in that: the portion defines a first direction in which polymeric material fills the mold while forming the article and a second direction perpendicular to the first direction, wherein the ratio of flex modulus measured in the first direction over flex modulus measured in the second direction is less than 1.9. the article includes at least one portion having a cross-sectional dimension of no more than 2.54 mm (0.100 inch); and characterized in that: at least 10% of the total number of fibers in the molded article have a length greater than 0.55 mm; and yet further characterized in that: the portion defines a first direction in which polymeric material fills the mold while forming the article and a second direction perpendicular to the first direction, wherein the ratio of flex modulus measured in the first direction over flex modulus measured in the second direction is less than 1.9. at least 10% of the total number of fibers in the molded article have a length greater than 0.55 mm; and yet further characterized in that: the portion defines a first direction in which polymeric material fills the mold while forming the article and a second direction perpendicular to the first direction, wherein the ratio of flex modulus measured in the first direction over flex modulus measured in the second direction is less than 1.9. the portion defines a first direction in which polymeric material fills the mold while forming the article and a second direction perpendicular to the first direction, wherein the ratio of flex modulus measured in the first direction over flex modulus measured in the second direction is less than 1.9.
A power tool that perform a predetermined operation by driving a tool bit comprising: a tool body (101; 201), a handgrip (103; 203) formed on the tool body (101; 203), a grip face provided on a circumferential surface of the handgrip (103; 203) and a plurality of ribs (117; 217) formed in parallel on the grip face to protrude from the grip face, whereby each rib (117; 217) extends on the grip face in a longitudinal direction of the handgrip (103; 203), characterized in that each rib (117; 217) has a ridged shape such that the ridged shape allows the rib (117; 217) an engagement with balls of fingertips of at least third to fifth fingers of user's hand holding the handgrip (103; 203) in one of the circumferential directions of the handgrip (103; 203), while the ridged shape does not allow the rib (117; 203) an engagement with balls of fingertips of at least third to fifth fingers of user's hand holding the handgrip (103; 203) in other direction of the circumferential directions. a tool body (101; 201), a handgrip (103; 203) formed on the tool body (101; 203), a grip face provided on a circumferential surface of the handgrip (103; 203) and a plurality of ribs (117; 217) formed in parallel on the grip face to protrude from the grip face, whereby
A method of providing power in a computerized apparatus configured for data transfer over an interface, the method comprising: establishing at least one link between a first device and a second device, the at least one link configurable for power and data transfer via the interface; responsive to establishment of the at least one link, determining: a power delivery capability of the first device, and a required power level for the second device; negotiating a power control scheme between the first device and the second device via the interface; based at least in part on the act of negotiating, providing power to the second device via the interface; characterised by: modulating, in an output power rail in the first device, a power control command into a power output provided by the first device; and demodulating, in an input power rail in the second device, the power control command from the power output received by the second device; wherein the interface comprises a USB-compliant interface configured for power transfer at a plurality of power levels, at least one of the plurality of power levels comprising a USB-compliant power level; and wherein the providing power to the second device comprises configuring the USB-compliant interface for providing power at a level that is in excess of the USB-compliant power level. establishing at least one link between a first device and a second device, the at least one link configurable for power and data transfer via the interface; responsive to establishment of the at least one link, determining: a power delivery capability of the first device, and a required power level for the second device; negotiating a power control scheme between the first device and the second device via the interface; based at least in part on the act of negotiating, providing power to the second device via the interface; a power delivery capability of the first device, and a required power level for the second device; negotiating a power control scheme between the first device and the second device via the interface; based at least in part on the act of negotiating, providing power to the second device via the interface; characterised by: modulating, in an output power rail in the first device, a power control command into a power output provided by the first device; and demodulating, in an input power rail in the second device, the power control command from the power output received by the second device; modulating, in an output power rail in the first device, a power control command into a power output provided by the first device; and demodulating, in an input power rail in the second device, the power control command from the power output received by the second device; wherein the interface comprises a USB-compliant interface configured for power transfer at a plurality of power levels, at least one of the plurality of power levels comprising a USB-compliant power level; and wherein the providing power to the second device comprises configuring the USB-compliant interface for providing power at a level that is in excess of the USB-compliant power level.
Method for phosphorous diffusion and phosphorous gettering of compensated p-type multicrystalline, silicon wafers, whereby p-type multicrystalline silicon wafers containing 0.2-2.8 ppma boron and 0.06-2.8 ppma phosphorous are obtained, and characterized in that the p-type multicrystalline silicon wafers are subjected to phosphorous diffusion and phosphorous gettering at a temperature of at least 950°C. p-type multicrystalline silicon wafers containing 0.2-2.8 ppma boron and 0.06-2.8 ppma phosphorous are obtained, and characterized in that the p-type multicrystalline silicon wafers are subjected to phosphorous diffusion and phosphorous gettering at a temperature of at least 950°C.
A compound of formula in the form of any one of its stereoisomers or a mixture thereof, and wherein the dotted line represents a carbon-carbon single or double bond; X represents a CN or CHO group; R 1 represents a hydrogen and each R 2 and R 3 independently from each other, represents a hydrogen atom or a C 1-2 alkyl group; and R represents a group of formula -[CH 2] n C(Me) 2 OH, wherein n is 1 or 2; said R being a meta or para substituent of the aromatic ring, relative position 1. X represents a CN or CHO group; R 1 represents a hydrogen and each R 2 and R 3 independently from each other, represents a hydrogen atom or a C 1-2 alkyl group; and R represents a group of formula -[CH 2] n C(Me) 2 OH, wherein n is 1 or 2; said R being a meta or para substituent of the aromatic ring, relative position 1.
Multifunction unit consisting of a plurality of movable tools (51-58, 71) installed in a base body of the multifunction unit, with at least one central drive, - wherein the tools (51-58, 71) in the base body are in either a retracted, parking position or an extended, working position, characterized in that the tools (51-58, 71) represent various types (50, 70) for separating and joining manufacturing processes, - wherein one or more tools (51-58, 71) from each tool type are present, - wherein the multifunction unit is designed such that multiple tools (51-58, 71), combined in a group mechanically or by software program, are able to be brought into a working position simultaneously, and - wherein the base body has a base-side adapter for a tool interface system, by which the mass forces of the multifunction unit are braced and via which at least the energy and data communication can be transferred. - wherein the tools (51-58, 71) in the base body are in either a retracted, parking position or an extended, working position, characterized in that the tools (51-58, 71) represent various types (50, 70) for separating and joining manufacturing processes, characterized in that the tools (51-58, 71) represent various types (50, 70) for separating and joining manufacturing processes, - wherein one or more tools (51-58, 71) from each tool type are present, - wherein the multifunction unit is designed such that multiple tools (51-58, 71), combined in a group mechanically or by software program, are able to be brought into a working position simultaneously, and - wherein the base body has a base-side adapter for a tool interface system, by which the mass forces of the multifunction unit are braced and via which at least the energy and data communication can be transferred.
A rechargeable battery comprising: an electrode assembly including a first electrode plate, a second electrode plate and a separator between the first electrode plate and the second electrode plate; a can in which the electrode assembly is accommodated, the can including an opening at one side, the opening being sealed by a cap plate; and a top plate on the cap plate, wherein the top plate includes: a first welding region and a second welding region that are coupled to the cap plate, a third welding region between the first welding region and the second welding region, and a lead plate welded to the third welding region, wherein the first welding region includes first to third welding points collectively forming a triangular shape, wherein the second welding region includes fourth to sixth welding points that collectively form a triangular shape. an electrode assembly including a first electrode plate, a second electrode plate and a separator between the first electrode plate and the second electrode plate; a can in which the electrode assembly is accommodated, the can including an opening at one side, the opening being sealed by a cap plate; and a top plate on the cap plate, wherein the top plate includes: a first welding region and a second welding region that are coupled to the cap plate, a third welding region between the first welding region and the second welding region, and a lead plate welded to the third welding region, wherein the first welding region includes first to third welding points collectively forming a triangular shape, wherein the second welding region includes fourth to sixth welding points that collectively form a triangular shape. a first welding region and a second welding region that are coupled to the cap plate, a third welding region between the first welding region and the second welding region, and a lead plate welded to the third welding region, wherein the first welding region includes first to third welding points collectively forming a triangular shape, wherein the second welding region includes fourth to sixth welding points that collectively form a triangular shape.
A computer-implemented method for operating an autonomous driving vehicle, the method comprising: detecting, at a first point in time, that a front wheel on one side of the autonomous driving vehicle, ADV, contacts a deceleration curb (502, 610) disposed on a lane in which the ADV is moving; detecting, at a second point in time, that a rear wheel on the other side of the ADV contacts the deceleration curb (502, 610); calculating a first distance along a movement direction that the ADV moves from the first point in time to the second point in time based on a current speed of the ADV; determining a second distance between an axle coupled to the front wheel and an axle coupled to the rear wheel, and a third distance between front wheels of the ADV; calculating an angle between the axle coupled to the front wheel and a direction of the deceleration curb (502, 610) based on the first distance, the second distance and the third distance; and generating a control command based on the angle to adjust a moving direction of the ADV, such that the ADV remains within the lane according to a lane direction of the lane. detecting, at a first point in time, that a front wheel on one side of the autonomous driving vehicle, ADV, contacts a deceleration curb (502, 610) disposed on a lane in which the ADV is moving; detecting, at a second point in time, that a rear wheel on the other side of the ADV contacts the deceleration curb (502, 610); calculating a first distance along a movement direction that the ADV moves from the first point in time to the second point in time based on a current speed of the ADV; determining a second distance between an axle coupled to the front wheel and an axle coupled to the rear wheel, and a third distance between front wheels of the ADV; calculating an angle between the axle coupled to the front wheel and a direction of the deceleration curb (502, 610) based on the first distance, the second distance and the third distance; and generating a control command based on the angle to adjust a moving direction of the ADV, such that the ADV remains within the lane according to a lane direction of the lane.
Unit for determining and/or monitoring at least one physical or chemical process variable of a medium in a process, wherein the process variable is the level, the density or the viscosity of the medium, with at least one unit capable of mechanical vibration, which consists of a tube and an inner oscillator, wherein the tube is connected to a fastening unit at an end facing away from the process, wherein the end of the tube facing towards the process is designed as a free end and is sealed by an end cap, wherein the tube surrounds the inner oscillator, wherein the inner oscillator is connected to the end of the tube that faces towards the process at an end facing towards the process, and with at least one drive/reception unit, wherein the drive/reception unit is used to cause the unit capable of mechanical vibration to vibrate, and/or wherein the drive/reception unit is used to receive the vibrations of the unit capable of mechanical vibration, characterized in that the inner oscillator has at least one groove or a groove in combination with a taper (9, 19), wherein the groove or a groove in combination with a taper (9, 19) is located closer to the connection between the inner oscillator and the tube than to the end of the inner oscillator facing away from the process, and wherein the vibration frequency of the unit capable of mechanical vibration is set via the design and/or position of the groove or a groove in combination with a taper (9, 19).
A device for holding a number of fish to be prepared in a position in which the stomach side of the fish points upwards, whereby the device has a basic structure which can be positioned on a horizontal surface and/or suspended from a holding structure by means of a suspension provision arranged on the device, the device further comprising multiple spikes (5a-5d, 6a-6d, 7a-7d, 8a-8d) for each fish to be held by the device that are in a parallel position to one another, the spikes (5a-5d, 6a-6d, 7a-7d, 8a-8d) projecting from the basic structure with a free end in such a way that each of the fish, which is skewered in supine position via the free ends through its side flanks, is thus exclusively in contact with the spikes (5a-5d, 6a-6d, 7a-7d, 8a-8d) assigned to each fish, and such that a first grouping of spikes (5a-5d) project out in order to hold a first fish of the number of fish, and a second grouping of spikes (8a-8d) to hold a second fish of the number of fish at the basic structure, on the two sides facing away from each other.
A library of barcode oligonucleotides, each barcode oligonucleotide comprising a variable region, a universal region, a phase-shift region and a capture region, wherein the phase-shift region is 5' to the universal region, and the capture region is at the 3' end of the barcode oligonucleotides, wherein a first nucleotide of the universal region of a first barcode oligonucleotide is staggered by 1 to 50 nucleotides from the first nucleotide of the universal region of a second barcode oligonucleotide.
A Machine Type Communications-Inter Working Function, MTC-IWF, device, comprising: a receiving unit, configured to receive a delivery report sent by a short message service-service center, SMS-SC, wherein the delivery report is sent to the MTC-IWF device by the SMS-SC after the SMS-SC fails to send a trigger message to a user equipment, UE; characterized in that the delivery report carries a delivery failure cause of the failure of the SMS-SC to send the trigger message, wherein the delivery failure cause includes Absent Subscriber, MS Busy for MT SMS or another cause other than Absent Subscriber and MS Busy for MT SMS, and the MTC-IWF device furhter comprises: a processing unit, configured to wait for the SMS-SC to resend the trigger message when the delivery failure cause is Absent Subscriber or MS Busy for MT SMS, or resend from the MTC-IWF device the trigger message when the delivery failure cause is another cause other than Absent Subscriber and MS Busy for MT SMS. a receiving unit, configured to receive a delivery report sent by a short message service-service center, SMS-SC, wherein the delivery report is sent to the MTC-IWF device by the SMS-SC after the SMS-SC fails to send a trigger message to a user equipment, UE; characterized in that the delivery report carries a delivery failure cause of the failure of the SMS-SC to send the trigger message, wherein the delivery failure cause includes Absent Subscriber, MS Busy for MT SMS or another cause other than Absent Subscriber and MS Busy for MT SMS, and the MTC-IWF device furhter comprises: a processing unit, configured to wait for the SMS-SC to resend the trigger message when the delivery failure cause is Absent Subscriber or MS Busy for MT SMS, or resend from the MTC-IWF device the trigger message when the delivery failure cause is another cause other than Absent Subscriber and MS Busy for MT SMS.
An overvoltage protection circuit comprising at least one energy-absorbing module, said energy-absorbing module including: - at least one metal-oxide varistor, MOV, - a gas arrestor connected in series with said at least one MOV, said overvoltage protection circuit further including a transient discriminative module connected in parallel with the energy-absorbing module, said transient discriminative module including an avalanche diode, wherein - the said at least one energy-absorbing module includes a resistance in parallel with said gas arrestor, and wherein - the circuit including a back-up module connected in parallel with said energy-absorbing module, said backup module including at least one further metal-oxide varistor, characterized in that the circuit in the back-up module is configured to offer a redundancy protection, if the energy-absorbing module fails, wherein said back-up module includes at least one fuse element connected in series with said at least one further MOV, wherein the said transient discriminative module includes a series connection of the avalanche diode and a capacitor, wherein said circuit includes an isolation module connected in series with said energy-absorbing module, connected between said energy-absorbing module and earth, wherein said isolation module includes at least one further switching device and wherein the further switching device comprises a further gas arrester. - at least one metal-oxide varistor, MOV, - a gas arrestor connected in series with said at least one MOV, said overvoltage protection circuit further including a transient discriminative module connected in parallel with the energy-absorbing module, said transient discriminative module including an avalanche diode, wherein - the said at least one energy-absorbing module includes a resistance in parallel with said gas arrestor, and wherein - the circuit including a back-up module connected in parallel with said energy-absorbing module, said backup module including at least one further metal-oxide varistor,
A high-strength steel for steel forgings, having a composition that consists of: C: 0.35 mass% to 0.47 mass%; Si: 0 mass% to 0.4 mass%; Mn: 0.6 mass% to 1.5 mass%; Ni: more than 0 mass% up to 2.0 mass%; Cr: 0.8 mass% to 2.5 mass%; Mo: 0.10 mass% to 0.7 mass%; V: 0.035 mass% to 0.20 mass%; Al: 0.015 mass% to 0.050 mass%; N: 30 ppm to 100 ppm; O: more than 0 ppm up to 30 ppm, and optionally, Cu: more than 0 mass% up to 1.5 mass%; optionally, Nb: more than 0 mass% up to 0.5 mass%; and optionally, B: more than 0 ppm up to 30 ppm, the balance being Fe and inevitable impurities including P, S, Sn, As, Pb and Ti, wherein the metal structure is mainly bainite, martensite or a mixed structure of bainite and martensite, and among cubic B1-type precipitates, the number of coherent precipitates having a Feret diameter through TEM equal to or smaller than 30 nm is equal to or smaller than 50 /μm 2. C: 0.35 mass% to 0.47 mass%; Si: 0 mass% to 0.4 mass%; Mn: 0.6 mass% to 1.5 mass%; Ni: more than 0 mass% up to 2.0 mass%; Cr: 0.8 mass% to 2.5 mass%; Mo: 0.10 mass% to 0.7 mass%; V: 0.035 mass% to 0.20 mass%; Al: 0.015 mass% to 0.050 mass%; N: 30 ppm to 100 ppm; O: more than 0 ppm up to 30 ppm, and optionally, Cu: more than 0 mass% up to 1.5 mass%; optionally, Nb: more than 0 mass% up to 0.5 mass%; and optionally, B: more than 0 ppm up to 30 ppm, the balance being Fe and inevitable impurities including P, S, Sn, As, Pb and Ti, wherein the metal structure is mainly bainite, martensite or a mixed structure of bainite and martensite, and among cubic B1-type precipitates, the number of coherent precipitates having a Feret diameter through TEM equal to or smaller than 30 nm is equal to or smaller than 50 /μm 2.
A coupler, including a body, a jaw that is moveable with respect to the body to engage a pin on a work attachment, a fixed jaw that does not move with respect to the body, wherein the jaw has an opening to a cavity, and wherein the opening is configured to enable a pin on the work attachment to be inserted into the jaw to thereby enable the jaw to engage the pin; an actuator having a first end and a second end, wherein the first end is secured to the jaw to enable contraction and/or expansion of the actuator to move the jaw, a locking portion that is moveable to a locking position in which it at least partially obstructs the opening to the jaw to prevent the pin being withdrawn from the jaw, wherein the locking portion is rigidly fixed with respect to the second end of the actuator, wherein the coupler includes a snap lock mechanism to bias the locking portion to the locking position.