mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a computing device associated with a microwave backhaul transceiver, the method comprising: receiving data indicative of a slot format for a wireless communication between a base station and a user equipment , the slot format comprising an uplink portion , a flexible portion , and a downlink portion ; measuring a signal during a time period associated with the flexible portion of the wireless communication; determining at least a frequency and a power level associated with the signal; based on the at least one of the frequency and the power level associated with the signal, determining that the frequency corresponds to a microwave backhaul communication frequency; determining that the power level meets or exceeds a threshold power level; and selecting a wireless resource for the microwave backhaul transceiver based at least in part on the power level meeting or exceeding the threshold power level. receiving data indicative of a slot format for a wireless communication between a base station and a user equipment , the slot format comprising an uplink portion , a flexible portion , and a downlink portion ; measuring a signal during a time period associated with the flexible portion of the wireless communication; determining at least a frequency and a power level associated with the signal; based on the at least one of the frequency and the power level associated with the signal, determining that the frequency corresponds to a microwave backhaul communication frequency; determining that the power level meets or exceeds a threshold power level; and selecting a wireless resource for the microwave backhaul transceiver based at least in part on the power level meeting or exceeding the threshold power level.
A method for the production of a composition comprising a fungal biomass, characterized in that said composition has a particular colour, the method comprising the steps of: (a) providing a growth medium; (b) providing at least one fungal strain; (c) cultivating in a batch or fed-batch fermentation the at least one fungal strain in the growth medium until deceleration phase is reached; (d) supplementing the growth medium with at least one additive that gives rise to the colour of the composition, wherein the supplementing is done in the deceleration phase; (e) further cultivating the at least one fungal strain in the growth medium supplemented with the at least one additive that gives rise to the colour of the composition; and (f) harvesting from the growth medium the composition comprising the fungal biomass characterized in that said composition has a particular colour; wherein the particular colour is due to the at least one additive supplemented in step (d). (a) providing a growth medium; (b) providing at least one fungal strain; (c) cultivating in a batch or fed-batch fermentation the at least one fungal strain in the growth medium until deceleration phase is reached; (d) supplementing the growth medium with at least one additive that gives rise to the colour of the composition, wherein the supplementing is done in the deceleration phase; (e) further cultivating the at least one fungal strain in the growth medium supplemented with the at least one additive that gives rise to the colour of the composition; and (f) harvesting from the growth medium the composition comprising the fungal biomass characterized in that said composition has a particular colour;
An additive manufacturing (AM) method for making a three-dimensional object, comprising extruding a part material (M) comprising a polymer component comprising: - from 55 to 99 wt.% of at least one poly(ether ketone ketone) (PEKK) polymer, and - from 1 to 45 wt.% of at least one poly(ether imide) (PEI) polymer, based on the total weight of the polymer component. - from 55 to 99 wt.% of at least one poly(ether ketone ketone) (PEKK) polymer, and - from 1 to 45 wt.% of at least one poly(ether imide) (PEI) polymer, based on the total weight of the polymer component.
A flexible catheter tip having a proximal end and a distal end, comprising: a spring element that tapers distally; wherein said spring element is a wire coil having pitch space between 2 or more coils in a first region (B) and tightly packed coils in a second region (C), characterized in that said second region (C) is distal of said first region (B).
An X-ray image processing method comprising: (a) obtaining m, wherein m is an integer of 2 or more, number of divided projection images of a subject at each of predetermined n, wherein n is an integer of 1 or more, number of imaging angles by moving an X-ray detector in a width direction while rotating an X-ray source and an X-ray detector about a rotating axis with the subject interposed therebetween; (b) classifying the multi directional divided projection images , as or into associated image groups, according to predetermined imaging angles about the rotating axis ; (c) generating a synthetic projection image at each of the imaging angles using the said associated image groups as or into which said divided projection images were classified according to said predetermined imaging angles; and (d) generating a reconstructed image by reconstructing the synthetic projection image, wherein the X-ray detector and the X-ray source are rotated about the rotating axis while facing each other, the X-ray source irradiating the X-rays to the X-ray detector at each of the predetermined imaging angles (θ) based on the rotating axis , while the rotating arm is rotated 360 degrees, and the size of the synthetic projection image is variable depending on the number of times that the X-ray detector is moved in the width direction of the X-ray detector . (a) obtaining m, wherein m is an integer of 2 or more, number of divided projection images of a subject at each of predetermined n, wherein n is an integer of 1 or more, number of imaging angles by moving an X-ray detector in a width direction while rotating an X-ray source and an X-ray detector about a rotating axis with the subject interposed therebetween; (b) classifying the multi directional divided projection images , as or into associated image groups, according to predetermined imaging angles about the rotating axis ; (c) generating a synthetic projection image at each of the imaging angles using the said associated image groups as or into which said divided projection images were classified according to said predetermined imaging angles; and (d) generating a reconstructed image by reconstructing the synthetic projection image, wherein the X-ray detector and the X-ray source are rotated about the rotating axis while facing each other, the X-ray source irradiating the X-rays to the X-ray detector at each of the predetermined imaging angles (θ) based on the rotating axis , while the rotating arm is rotated 360 degrees, and the size of the synthetic projection image is variable depending on the number of times that the X-ray detector is moved in the width direction of the X-ray detector . wherein the X-ray detector and the X-ray source are rotated about the rotating axis while facing each other, the X-ray source irradiating the X-rays to the X-ray detector at each of the predetermined imaging angles (θ) based on the rotating axis , while the rotating arm is rotated 360 degrees, and the size of the synthetic projection image is variable depending on the number of times that the X-ray detector is moved in the width direction of the X-ray detector .
A recombinant cytomegalovirus (CMV) gB protein, wherein (i) said gB protein does not comprise a transmembrane (TM) domain; and (ii) said gB protein comprises a hydrophobic surface 1 region formed by amino acids 154-160 and 236-243 of the sequence set forth in SEQ ID NO:1, or by corresponding amino acid residues in other CMV gB proteins identified by aligning the query sequence against SEQ ID NO:1, which comprises a mutation that results in a glycosylation site within said region. (i) said gB protein does not comprise a transmembrane (TM) domain; and (ii) said gB protein comprises a hydrophobic surface 1 region formed by amino acids 154-160 and 236-243 of the sequence set forth in SEQ ID NO:1, or by corresponding amino acid residues in other CMV gB proteins identified by aligning the query sequence against SEQ ID NO:1, which comprises a mutation that results in a glycosylation site within said region.
Vehicle seat with a structural component , a locking unit for locking the structural component to another component , and an adapter arrangement which is connected to the structural component and which is intended to connect the locking unit to the structural component of the vehicle seat , wherein the locking unit has a housing , and the adapter arrangement braces the housing in two opposite directions, wherein the adapter arrangement comprises a first adapter part and a second adapter part , characterized in that the housing is arranged in a transverse direction (y) between the first adapter part and the second adapter part , wherein the adapter arrangement braces the housing in and against the transverse direction (y).
An integrated circuit for executing instructions comprising: a processor core including a pipeline configured to execute instructions, including gather-scatter memory instructions; a memory protection circuit configured to check for memory protection violations with a protection granule; and an index range circuit configured to: determine an upper bound of a tuple of indices stored in a vector register of the processor core as a bitwise OR of all the indices stored in the vector register; determine a lower bound of the tuple of indices as a bitwise AND of all the indices stored in the vector register; determine a range of addresses for a gather-scatter memory instruction that takes the vector register as a set of indices based on a base address of a vector in memory, the upper bound, the lower bound; and check, using the memory protection circuit during a single clock cycle, whether accessing elements of the vector within the range of addresses will cause a memory protection violation. a processor core including a pipeline configured to execute instructions, including gather-scatter memory instructions; a memory protection circuit configured to check for memory protection violations with a protection granule; and an index range circuit configured to: determine an upper bound of a tuple of indices stored in a vector register of the processor core as a bitwise OR of all the indices stored in the vector register; determine a lower bound of the tuple of indices as a bitwise AND of all the indices stored in the vector register; determine a range of addresses for a gather-scatter memory instruction that takes the vector register as a set of indices based on a base address of a vector in memory, the upper bound, the lower bound; and check, using the memory protection circuit during a single clock cycle, whether accessing elements of the vector within the range of addresses will cause a memory protection violation. determine an upper bound of a tuple of indices stored in a vector register of the processor core as a bitwise OR of all the indices stored in the vector register; determine a lower bound of the tuple of indices as a bitwise AND of all the indices stored in the vector register; determine a range of addresses for a gather-scatter memory instruction that takes the vector register as a set of indices based on a base address of a vector in memory, the upper bound, the lower bound; and check, using the memory protection circuit during a single clock cycle, whether accessing elements of the vector within the range of addresses will cause a memory protection violation.
A method comprising the steps of: receiving, by a receiver, dedicated control information, DCI, destined for the receiver in a resource contained in configured resource candidates, the resource being a unit for data allocation in a combination of time and frequency domains, the dedicated control information, DCI, including modulation and coding information of a data packet transmitted on a shared data channel, SDCH, destined for the receiver, wherein a PHY frame of the resource includes a control region and a separate data region, and the dedicated control information, DCI, is located in the data region that is allocated after the control region in the time domain; monitoring, by the receiver, the configured resource candidates, the monitoring including attempting to decode the dedicated control information, DCI, destined for the receiver; and when the dedicated control information, DCI, is successfully decoded, obtaining the data packet corresponding to the successfully decoded dedicated control information, DCI. receiving, by a receiver, dedicated control information, DCI, destined for the receiver in a resource contained in configured resource candidates, the resource being a unit for data allocation in a combination of time and frequency domains, the dedicated control information, DCI, including modulation and coding information of a data packet transmitted on a shared data channel, SDCH, destined for the receiver, wherein a PHY frame of the resource includes a control region and a separate data region, and the dedicated control information, DCI, is located in the data region that is allocated after the control region in the time domain; monitoring, by the receiver, the configured resource candidates, the monitoring including attempting to decode the dedicated control information, DCI, destined for the receiver; and when the dedicated control information, DCI, is successfully decoded, obtaining the data packet corresponding to the successfully decoded dedicated control information, DCI.
A device for positioning a wheel speed sensor relative to a pole wheel, comprising a fastening mechanism for attaching the device to an axle body part , and a receiving region for receiving the wheel speed sensor , characterized in that the device further comprises a positioning mechanism for the controlled setting of a distance between the receiving region and the pole wheel.
Method for activating a power-split transmission device in an agricultural working vehicle , wherein the transmission device comprises a summation transmission , an electric variator for infinitely variably varying a transmission ratio of the summation transmission , and a transmission with an adjustable transmission ratio , in order to connect a drive motor to a travel drive of the working vehicle , and wherein the electric variator comprises a first and second electric machine and a controller of the electric machines , in which, when an external power requirement of an electric consumer is identified, a transmission ratio range of the transmission with an adjustable transmission ratio is set in such a manner that the first electric machine is operated in the generator mode and the second electric machine is operated in such a manner that a power shortfall or power oversupply existing with respect to the external power requirement is compensated for.
A package for a semiconductor die comprising: a package substrate , wherein the package substrate is an organic package substrate; a first semiconductor die having active circuitry near a front side of the first semiconductor die coupled to the package substrate , and having a back side opposite the front side; a component substrate near the back side of the first semiconductor die , wherein the component substrate extends over the first semiconductor die laterally; a plurality of passive electrical components on the component substrate ; and a conductive connection pathway through-mold via, TMV, directly between the component substrate and the package substrate to connect a passive component to the active circuitry independent of the first semiconductor die , and configured to carry power to the second die without going through the first die ; a second semiconductor die connected to the component substrate on a side of the component substrate opposite the first semiconductor die ; and a via through the component substrate and a through-silicon via, TSV, through the first semiconductor die to connect the second semiconductor die through the first semiconductor die from the back side to the active circuitry. a package substrate , wherein the package substrate is an organic package substrate; a first semiconductor die having active circuitry near a front side of the first semiconductor die coupled to the package substrate , and having a back side opposite the front side; a component substrate near the back side of the first semiconductor die , wherein the component substrate extends over the first semiconductor die laterally; a plurality of passive electrical components on the component substrate ; and a conductive connection pathway through-mold via, TMV, directly between the component substrate and the package substrate to connect a passive component to the active circuitry independent of the first semiconductor die , and configured to carry power to the second die without going through the first die ; a second semiconductor die connected to the component substrate on a side of the component substrate opposite the first semiconductor die ; and a via through the component substrate and a through-silicon via, TSV, through the first semiconductor die to connect the second semiconductor die through the first semiconductor die from the back side to the active circuitry.
A method for treating manure sludge comprising the steps of: - providing manure sludge, - subjecting the manure sludge to separation to provide a first dry fraction and a first liquid fraction, - adding a metal salt to the first liquid fraction to provide a metal salt-containing first liquid fraction, - subjecting the metal salt-containing first liquid fraction to a first centrifugation to provide a second dry fraction and a second liquid fraction, - leading the first dry fraction and the second dry fraction to an anaerobic digestion reactor to provide a digestate and biogas, - subjecting the digestate to a second centrifugation to provide a third liquid fraction and a third dry fraction, - recovering the third dry fraction, - subjecting the second liquid fraction and the third liquid fraction to clarification selected from at least one of ultrafiltration and flotation to provide a clarified liquid fraction, - subjecting the clarified liquid fraction to one or more reverse osmosis (RO) filtration steps to provide an RO retentate and an RO permeate, - recovering the RO retentate. - providing manure sludge, - subjecting the manure sludge to separation to provide a first dry fraction and a first liquid fraction, - adding a metal salt to the first liquid fraction to provide a metal salt-containing first liquid fraction, - subjecting the metal salt-containing first liquid fraction to a first centrifugation to provide a second dry fraction and a second liquid fraction, - leading the first dry fraction and the second dry fraction to an anaerobic digestion reactor to provide a digestate and biogas, - subjecting the digestate to a second centrifugation to provide a third liquid fraction and a third dry fraction, - recovering the third dry fraction, - subjecting the second liquid fraction and the third liquid fraction to clarification selected from at least one of ultrafiltration and flotation to provide a clarified liquid fraction, - subjecting the clarified liquid fraction to one or more reverse osmosis (RO) filtration steps to provide an RO retentate and an RO permeate, - recovering the RO retentate.
Apparatus for inspecting a pharmaceutical cylindrical container made of glass or of a polymer, wherein the apparatus comprises a support device, a light receiving unit and a light emitting unit, wherein the support device supports the pharmaceutical cylindrical container on its lateral surface, such that the pharmaceutical cylindrical container is rotatable around its longitudinal axis , wherein the light receiving unit comprises a main camera for acquiring an image of the pharmaceutical cylindrical container , and whereby the light emitting unit comprises with regard to the main camera a bright field light source , a radial dark field light source , and an axial dark field light source . wherein the support device supports the pharmaceutical cylindrical container on its lateral surface, such that the pharmaceutical cylindrical container is rotatable around its longitudinal axis , wherein the light receiving unit comprises a main camera for acquiring an image of the pharmaceutical cylindrical container , and whereby the light emitting unit comprises with regard to the main camera a bright field light source , a radial dark field light source , and an axial dark field light source .
A firing apparatus, in particular for lump fuel, having a combustion chamber and an air supply, wherein an air chamber connected to an air inlet is provided under a bottom of a fuel receiver, from which an upwardly projecting air supply is formed by a plurality of upwardly leading pipes arranged distributed over the majority of the periphery of the floor plan of the combustion chamber , each of which is in communication with the air chamber and is provided with a plurality of outlet openings arranged distributed over the height of the tube and directed against the combustion chamber , characterised in that the air supply occurs solely through the tubes arranged distributed over the majority of the periphery of the floor plan of the combustion chamber .
Method for producing a setting retarder for hydrate-forming binders, wherein a) a first reactant A, comprising an amino acid which has precisely one carboxyl group and precisely two amine groups, is reacted with b) a second reactant C, comprising an amine-free carboxylic acid and/or an amine-free carboxylic acid derivative, where the amine-free carboxylic acid derivative is selected from carboxylic acid anhydrides, carboxylic acid halides and/or carboxylic acid esters, to form a reaction product, characterized in that the pH is held constant during the reaction in the range of 7.5 - 11.5, preferably 8 - 11, in particular 8.5 - 10.5. a) a first reactant A, comprising an amino acid which has precisely one carboxyl group and precisely two amine groups, is reacted with b) a second reactant C, comprising an amine-free carboxylic acid and/or an amine-free carboxylic acid derivative, where the amine-free carboxylic acid derivative is selected from carboxylic acid anhydrides, carboxylic acid halides and/or carboxylic acid esters,