mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for performing chip-to-chip communications, comprising: a modulation circuit and a demodulation circuit based on differential current flow, for communicating between a transmitting chip and a receiving chip ; said modulation circuit including a digital-to-analog converter and current mode mixer for each of a plurality of data bits and one or more track pulses, each of said plurality of data bits is converted from a digital signal to an analog differential current and mixed in said current mode mixer with analog differential current outputs for other data bits during multi-frequency modulation in which the differential current is modulated in response to applying a frequency carrier at each of multiple frequencies in different current mode mixers in each modulator circuit; and said demodulation circuit including a current mode mixer and analog-to-digital converter for each of a plurality of data bits and one or more track pulses received from said modulation circuit , whereby a frequency carrier from said multiple frequencies is applied to each current mode mixer in said demodulation circuit to demodulate the analog differential carrier prior to conversion back to a digital signal through said analog-to-digital converter . a modulation circuit and a demodulation circuit based on differential current flow, for communicating between a transmitting chip and a receiving chip ; said modulation circuit including a digital-to-analog converter and current mode mixer for each of a plurality of data bits and one or more track pulses, each of said plurality of data bits is converted from a digital signal to an analog differential current and mixed in said current mode mixer with analog differential current outputs for other data bits during multi-frequency modulation in which the differential current is modulated in response to applying a frequency carrier at each of multiple frequencies in different current mode mixers in each modulator circuit; and said demodulation circuit including a current mode mixer and analog-to-digital converter for each of a plurality of data bits and one or more track pulses received from said modulation circuit , whereby a frequency carrier from said multiple frequencies is applied to each current mode mixer in said demodulation circuit to demodulate the analog differential carrier prior to conversion back to a digital signal through said analog-to-digital converter .
A method of wireless communication by a first user equipment, UE, the method comprising: transmitting , by the first UE, a search signal based at least in part on failing to receive a discovery broadcast from at least one second UE associated with a first energy metric that satisfies a first type of energy metric threshold; and determining , by the first UE, to utilize a third UE that is not configured to transmit periodic discovery broadcasts and is associated with a second energy metric that does not satisfy the first type of energy metric threshold, as a relay based at least in part on a result of the search signal, wherein the third UE is associated with a third energy metric that satisfies a second type of energy metric threshold, and is configured to transmit a discovery broadcast as a response to the search signal, and wherein the second type of energy metric threshold is different from the first type of energy metric threshold, wherein the first energy metric, the second energy metric and the third energy metric are related to at least one of an energy load for a path to a base station, a remaining battery life, a quantity of hops of a connection to the base station, or a combination thereof. transmitting , by the first UE, a search signal based at least in part on failing to receive a discovery broadcast from at least one second UE associated with a first energy metric that satisfies a first type of energy metric threshold; and determining , by the first UE, to utilize a third UE that is not configured to transmit periodic discovery broadcasts and is associated with a second energy metric that does not satisfy the first type of energy metric threshold, as a relay based at least in part on a result of the search signal, wherein the third UE is associated with a third energy metric that satisfies a second type of energy metric threshold, and is configured to transmit a discovery broadcast as a response to the search signal, and wherein the second type of energy metric threshold is different from the first type of energy metric threshold, wherein the first energy metric, the second energy metric and the third energy metric are related to at least one of an energy load for a path to a base station, a remaining battery life, a quantity of hops of a connection to the base station, or a combination thereof. an energy load for a path to a base station, a remaining battery life, a quantity of hops of a connection to the base station, or a combination thereof.
A water outlet for mounting in a recess in a wall, with an inner pipe designed as a flow-through pipe, with an outer pipe designed as an outflow pipe, wherein the outer pipe at least partially surrounds the inner pipe , with a connection unit , wherein the outer pipe being displaceable along its longitudinal axis (L), and wherein a fixing means is provided, by which a previously adjusted relative position between the inner pipe and the outer pipe can be fixed, characterized in that the connection unit comprises a connection plate and a bezel , in that the inner pipe is arranged on the connection plate and in that the bezel is arranged around the outer pipe at a distance from the connection plate , and in that the fixing means is arranged between the connection plate and the diaphragm .
A method comprising: receiving , at a base station , downlink data to send to a user equipment, UE ; determining , at a base station , based at least in part on a machine learned model, a traffic classification associated with the downlink data; determining , at a base station , based at least in part on the traffic classification, at least one Connected Mode Discontinuous Reception, CDRX, parameter for the UE ; sending , from the base station to the US , the at least one CDRX parameter; and sending , from the base station to the US , the downlink data based at least in part on the at least one CDRX parameter. receiving , at a base station , downlink data to send to a user equipment, UE ; determining , at a base station , based at least in part on a machine learned model, a traffic classification associated with the downlink data; determining , at a base station , based at least in part on the traffic classification, at least one Connected Mode Discontinuous Reception, CDRX, parameter for the UE ; sending , from the base station to the US , the at least one CDRX parameter; and sending , from the base station to the US , the downlink data based at least in part on the at least one CDRX parameter.
A multiport microwave device, comprising: a first reactive three-port microwave device ; a second reactive three-port microwave device ; a third reactive three-port microwave device ; and a matched four-port microwave device having first and second input ports and first and second output ports communicatively coupled to one another, wherein a first port (40a1, 40a2, 40a3) of each of the first, second and third three-port microwave devices is operative to receive a microwave signal, and a first output port and a second output port of the four-port microwave device are each operative to output a microwave signal, a second port (40a1) of the first three-port microwave device is communicatively coupled to a second port (40b2) of the second three-port microwave device , a second port (40c2) of the third three-port microwave device is communicatively coupled to a third port (40a3) of the second three-port microwave device , a third port (40a3) of the first three-port microwave device is communicatively coupled to the first input port of the four-port microwave device , and a third port (40c3) of the third three-port microwave device is communicatively coupled to the second input port of the four-port microwave device . a first reactive three-port microwave device ; a second reactive three-port microwave device ; a third reactive three-port microwave device ; and a matched four-port microwave device having first and second input ports and first and second output ports communicatively coupled to one another, wherein a first port (40a1, 40a2, 40a3) of each of the first, second and third three-port microwave devices is operative to receive a microwave signal, and a first output port and a second output port of the four-port microwave device are each operative to output a microwave signal, a second port (40a1) of the first three-port microwave device is communicatively coupled to a second port (40b2) of the second three-port microwave device , a second port (40c2) of the third three-port microwave device is communicatively coupled to a third port (40a3) of the second three-port microwave device , a third port (40a3) of the first three-port microwave device is communicatively coupled to the first input port of the four-port microwave device , and a third port (40c3) of the third three-port microwave device is communicatively coupled to the second input port of the four-port microwave device .
A processor comprising: decode circuitry to decode an instruction specifying locations of first, second, and third floating-point (FP) operands and an opcode calling for accumulating a FP product of the first and second FP operands with previous contents of the third FP operand; execution circuitry is characterized in that to execute the decoded instruction to, in a first cycle, generate the FP product having a Fuzzy-Jbit format comprising a sign bit, a 9-bit exponent, and a 25-bit mantissa having two bits to allow two possible positions for a bit, Jbit; and the execution circuitry, in a second cycle , to accumulate the FP product with the third FP operand, while concurrently, based on Jbit positions of the FP product and the third FP operand, to determine an exponent adjustment and a mantissa shift control of a result of the accumulation, wherein performing the exponent adjustment concurrently with the accumulation reduces an impact of the exponent adjustment on a critical timing path, and enhances an ability to perform the accumulation in one cycle. decode circuitry to decode an instruction specifying locations of first, second, and third floating-point (FP) operands and an opcode calling for accumulating a FP product of the first and second FP operands with previous contents of the third FP operand; execution circuitry is characterized in that to execute the decoded instruction to, in a first cycle, generate the FP product having a Fuzzy-Jbit format comprising a sign bit, a 9-bit exponent, and a 25-bit mantissa having two bits to allow two possible positions for a bit, Jbit; and the execution circuitry, in a second cycle , to accumulate the FP product with the third FP operand, while concurrently, based on Jbit positions of the FP product and the third FP operand, to determine an exponent adjustment and a mantissa shift control of a result of the accumulation, wherein performing the exponent adjustment concurrently with the accumulation reduces an impact of the exponent adjustment on a critical timing path, and enhances an ability to perform the accumulation in one cycle.
An apparatus , for refining molten glass that includes: a housing defining an inner chamber and having a vertically oriented longitudinal axis (L) and a transverse axis (T) perpendicular to said longitudinal axis; an inlet at an upper end of said housing to receive molten glass from a glass melting furnace positioned upstream of said housing; an outlet at a lower end of said housing to discharge molten glass from said housing; and a guide to direct molten glass in a downward direction through said inner chamber of said housing, said guide extending at least partway across said inner chamber in a parallel or oblique direction relative to said transverse axis of said housing, wherein said guide is constructed and arranged such that molten glass flowing through said inner chamber of said housing (i) repeatedly intersects said longitudinal axis of said housing, or (ii) repeatedly passes from one side of said longitudinal axis of said housing to another, without intersecting said longitudinal axis, or (iii) repeatedly moves toward and away from said longitudinal axis of said housing. a housing defining an inner chamber and having a vertically oriented longitudinal axis (L) and a transverse axis (T) perpendicular to said longitudinal axis; an inlet at an upper end of said housing to receive molten glass from a glass melting furnace positioned upstream of said housing; an outlet at a lower end of said housing to discharge molten glass from said housing; and a guide to direct molten glass in a downward direction through said inner chamber of said housing, said guide extending at least partway across said inner chamber in a parallel or oblique direction relative to said transverse axis of said housing, wherein said guide is constructed and arranged such that molten glass flowing through said inner chamber of said housing (i) repeatedly intersects said longitudinal axis of said housing, or (ii) repeatedly passes from one side of said longitudinal axis of said housing to another, without intersecting said longitudinal axis, or (iii) repeatedly moves toward and away from said longitudinal axis of said housing.
Machining tool (2a-d), in particular cutting, drilling, milling, turning and/or countersinking tool, having a tool shank (4a-d), which has an axial accommodating opening (6a-d), and a cutting element (12a-d), which is pressed at least to some extent into the accommodating opening (6a-d), wherein the accommodating-opening cross section and the pressed-in cutting-element cross section are designed such that the tool shank (4a-d) is plastically deformed as a result of the cutting element (12a-d) being pressed in, characterized in that the cutting element (12a-d) is formed from a cemented carbide or Cermet and is pressed in in an as-sintered state.
A process of production of an attenuated RNA virus or of an attenuated cDNA clone thereof, by attenuation of an infectious RNA virus or of an infectious cDNA clone thereof, wherein said infectious RNA virus or infectious cDNA clone thereof comprises a RNA-dependent RNA polymerase, wherein said process comprises providing an infectious RNA virus or an infectious cDNA clone thereof, wherein said infectious cDNA clone comprises the cDNA sequence, which is the retrotranscript of the CDS of the genome of said RNA virus, modifying the RNA genome of said infectious RNA virus or the retro-transcribed cDNA sequence of said cDNA clone, respectively, wherein said modification comprises replacing at least one codon, which codes for Leu, Ser, Arg or Gly in said infectious RNA virus or infectious cDNA clone, by a different but synonymous codon, wherein said different but synonymous codon is a codon, which differs by only one nucleotide from a STOP codon.
A channel state information CSI receiving method, comprising: receiving , by a first access network device, a notification message sent by a second access network device, wherein the notification message is used to indicate condition information based on which a terminal device camping on a first cell managed by the second access network device sends CSI; and receiving , by the first access network device, on a resource determined according to the condition information indicated by the notification message, the CSI sent by the terminal device; wherein if the terminal device sends periodic CSI by using an uplink shared channel, the notification message is used to indicate a difference between a coding rate used by the periodic CSI and a coding rate used by uplink data. receiving , by a first access network device, a notification message sent by a second access network device, wherein the notification message is used to indicate condition information based on which a terminal device camping on a first cell managed by the second access network device sends CSI; and receiving , by the first access network device, on a resource determined according to the condition information indicated by the notification message, the CSI sent by the terminal device; wherein if the terminal device sends periodic CSI by using an uplink shared channel, the notification message is used to indicate a difference between a coding rate used by the periodic CSI and a coding rate used by uplink data.
A top mount watersealing mechanism for toilets, wherein the top mount watersealing mechanism comprises a top mount base , a top mount seat ring and a watersealing material , the top mount base comprises a female connector , a male connector of the top mount seat ring is inserted into the female connector , a heater is contained in the top mount seat ring and connected with a control unit in the top mount base through an electric wire , characterized in that the electric wire penetrates through the female connector and the male connector , the male connector is filled with the watersealing material , and the watersealing material wraps the corresponding electric wire .
Method for the production of a medical, preferably dental, form body or part thereof comprising or containing a lithium silicate glass ceramic, in particular a bridge, crown, cap, inlay, onlay or veneer, wherein a preform body with a geometry that corresponds to the form body is produced from a glass melt of the following composition in percentage by weight: - SiO 2 52 - 70, - nucleating agent P 2 O 5 3 - 8, - Al 2 O 3 0.5 - 5, - Li 2 O 13 - 22, - K 2 O 0.5 - 8, - Na 2 O 0 - 0.5, - ZrO 2 4 - 16, - CeO 2 0.5 - 8, - Tb 4 O 7 0.5 - 6, - optionally an oxide or a number of oxides of an earth alkali metal or a number of earth alkali metals of the group magnesium, calcium, strontium and barium 0 - 10, - optionally an oxide or a number of oxides from the group boron oxide, tin oxide and zinc oxide 0 - 7, wherein the total sum is 100% by weight, and comprising or containing a lithium silicate glass ceramic, in said preform body a surface compressive stress is created by replacement of lithium ions with alkali ions of greater diameter, wherein after substitution of the ions the preform body is used as the form body containing a glass phase in the range 20-65% by volume. a preform body with a geometry that corresponds to the form body is produced from a glass melt of the following composition in percentage by weight: - SiO 2 52 - 70, - nucleating agent P 2 O 5 3 - 8, - Al 2 O 3 0.5 - 5, - Li 2 O 13 - 22, - K 2 O 0.5 - 8, - Na 2 O 0 - 0.5, - ZrO 2 4 - 16, - CeO 2 0.5 - 8, - Tb 4 O 7 0.5 - 6, - optionally an oxide or a number of oxides of an earth alkali metal or a number of earth alkali metals of the group magnesium, calcium, strontium and barium 0 - 10, - optionally an oxide or a number of oxides from the group boron oxide, tin oxide and zinc oxide 0 - 7, wherein the total sum is 100% by weight, and comprising or containing a lithium silicate glass ceramic, in said preform body a surface compressive stress is created by replacement of lithium ions with alkali ions of greater diameter, wherein after substitution of the ions the preform body is used as the form body containing a glass phase in the range 20-65% by volume.
A drive system having a drive unit which drives one or more hydraulic pumps of a hydraulic system of the work machine via an output shaft and having a clutch which can be controlled or is designed so that it separates the output shaft from the hydraulic pump or pumps in towing load operation, with the clutch being hydraulically controlled, characterized in that the pressure supply of the hydraulic control of the clutch takes place via a further hydraulic pump which is driven by a power takeoff of the drive unit, with the hydraulic supply for the control of the clutch also taking place with an open clutch.
Tyre with a radial carcass reinforcement for a vehicle of the light truck type, comprising a crown reinforcement made up of three working crown layers of metal reinforcing elements, itself capped radially by a tread , said tread being connected to two beads by two sidewalls, the reinforcing elements of the two radially innermost working layers being oriented on either side of the circumferential direction, the reinforcing elements of the two radially outermost working layers being oriented in the same direction with respect to the circumferential direction and form angles of between 12° and 20° with the circumferential direction, the difference between the absolute values of the angles of the reinforcing elements of each of the radially outermost working layers being less than 5°, characterized in that the angles, formed with the circumferential direction, of the reinforcing elements of the radially innermost working layer are between 30° and 45°, and in that the difference between the absolute values of the angles of the reinforcing elements of the radially innermost working layers is greater than 14°.
A method for automatically handling objects in which the objects are held by means of an object gripper or the like and are subjected to a handling process, a transport process or an assembly process in the held state, wherein the position of at least one surface section of the held object relative to a contact surface of the object gripper or the like is monitored by means of at least one position sensor arranged at the object gripper or the like and a warning signal or control signal is generated in the event of a change of the position during the handling process, the transport process or the assembly process; wherein the position of the surface section is monitored by an amplitude evaluation and/or by a signal shape evaluation, and wherein the position of the surface section is monitored by means of at least one ultrasonic transducer ; wherein a placement and a new gripping of the object are initiated when a warning signal or control signal is present. wherein the position of at least one surface section of the held object relative to a contact surface of the object gripper or the like is monitored by means of at least one position sensor arranged at the object gripper or the like and a warning signal or control signal is generated in the event of a change of the position during the handling process, the transport process or the assembly process; wherein the position of the surface section is monitored by an amplitude evaluation and/or by a signal shape evaluation, and wherein the position of the surface section is monitored by means of at least one ultrasonic transducer ; wherein a placement and a new gripping of the object are initiated when a warning signal or control signal is present.
Squirrel-cage rotor for rotating electric machines, having tooth tips and squirrel-cage rotor bars made of a bar material, wherein the squirrel-cage rotor bars are inserted in the rotor slots of a lamination stack and provided with groove-shaped bar recesses , characterized in that in the upper bar region , the squirrel-cage rotor bars inserted in a distributed manner in the rotor slots on the lamination stack have slot-like bar recesses of a trough-shaped or v-shaped cross-section, which are approached to the rotor end ring or extend as far as into the rotor end ring , arranged continuously over the whole bar length and the slotted squirrel-cage rotor bars are spread apart in a wedge shape after or at the slot exits , wherein the bar material is deformed toward the outside such that it engages the edges of the tooth tips at the outside of the slot exits .