mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: receiving, by a wireless device, a first downlink control information, DCI, scheduling transport blocks, TBs, via physical downlink shared channels, PDSCHs, in slots, wherein: each of the TBs is received via a respective PDSCH of the PDSCHs and in a respective slot of the slots; and the first DCI comprises: a first PDSCH-to-hybrid automatic repeat request, PDSCH-to-HARQ, feedback timing indicator set to a first value indicating an inapplicable value; and a first PDSCH group index for the PDSCHs; receiving the TBs in the slots, wherein each TB is associated with a respective hybrid automatic repeat request, HARQ, process; receiving a second DCI indicating a second PDSCH group index, wherein the second DCI comprises a second PDSCH-to-HARQ feedback timing indicator set to other than the first value and indicating an applicable value; and transmitting HARQ feedback information for the TBs in response to the second DCI and based on: the first PDSCH-to-HARQ feedback timing indicator, of the first DCI, indicating the inapplicable value; and the first PDSCH group index of the first DCI being equal to the second PDSCH group index of the second DCI. receiving, by a wireless device, a first downlink control information, DCI, scheduling transport blocks, TBs, via physical downlink shared channels, PDSCHs, in slots, wherein: each of the TBs is received via a respective PDSCH of the PDSCHs and in a respective slot of the slots; and the first DCI comprises: a first PDSCH-to-hybrid automatic repeat request, PDSCH-to-HARQ, feedback timing indicator set to a first value indicating an inapplicable value; and a first PDSCH group index for the PDSCHs; each of the TBs is received via a respective PDSCH of the PDSCHs and in a respective slot of the slots; and the first DCI comprises: a first PDSCH-to-hybrid automatic repeat request, PDSCH-to-HARQ, feedback timing indicator set to a first value indicating an inapplicable value; and a first PDSCH group index for the PDSCHs; a first PDSCH-to-hybrid automatic repeat request, PDSCH-to-HARQ, feedback timing indicator set to a first value indicating an inapplicable value; and a first PDSCH group index for the PDSCHs; receiving the TBs in the slots, wherein each TB is associated with a respective hybrid automatic repeat request, HARQ, process; receiving a second DCI indicating a second PDSCH group index, wherein the second DCI comprises a second PDSCH-to-HARQ feedback timing indicator set to other than the first value and indicating an applicable value; and transmitting HARQ feedback information for the TBs in response to the second DCI and based on: the first PDSCH-to-HARQ feedback timing indicator, of the first DCI, indicating the inapplicable value; and the first PDSCH group index of the first DCI being equal to the second PDSCH group index of the second DCI. the first PDSCH-to-HARQ feedback timing indicator, of the first DCI, indicating the inapplicable value; and the first PDSCH group index of the first DCI being equal to the second PDSCH group index of the second DCI.
A method, comprising: observing , with a position measurement device, a respective position of a first, second and third target point non-photographically, with respect to a local or global coordinate system; capturing , with an imaging device, the first, second and third target points in one or more images observed from one or more stations; correlating , with a computer, the observed position of each of the first, second and third target points with a respective pixel coordinate location of each of the first, second and third target points in each of the one or more images; performing , with the computer, a bundle adjustment calculation to orient a mosaic of images comprising the one or more images, where performing the bundle adjustment calculation comprises constraining the bundle adjustment calculation so that a location of the first and second target points, respectively, in the oriented mosaic of images corresponds to the observed respective position of the first and second target points with respect to the local or global coordinate system to within a specified precision; and comparing , with the computer, a location of the third target point in the oriented mosaic of images with the observed position of the third target point with respect to the local or global coordinate system, to ensure that the oriented mosaic of images corresponds to the local or global coordinate system to within a specified precision. observing , with a position measurement device, a respective position of a first, second and third target point non-photographically, with respect to a local or global coordinate system; capturing , with an imaging device, the first, second and third target points in one or more images observed from one or more stations; correlating , with a computer, the observed position of each of the first, second and third target points with a respective pixel coordinate location of each of the first, second and third target points in each of the one or more images; performing , with the computer, a bundle adjustment calculation to orient a mosaic of images comprising the one or more images, where performing the bundle adjustment calculation comprises constraining the bundle adjustment calculation so that a location of the first and second target points, respectively, in the oriented mosaic of images corresponds to the observed respective position of the first and second target points with respect to the local or global coordinate system to within a specified precision; and comparing , with the computer, a location of the third target point in the oriented mosaic of images with the observed position of the third target point with respect to the local or global coordinate system, to ensure that the oriented mosaic of images corresponds to the local or global coordinate system to within a specified precision.
Method for operating a tool device for roller-burnishing a component bore, wherein the tool device has a shank for coupling to a rotary drive of a power tool and a lance which has at least one roller-burnishing body, and wherein the lance has, on its outer circumference, a multiplicity of balls as roller-burnishing bodies, which are arranged in a distributed manner along the axial extent and in the circumferential direction of the lance , characterized by the following method steps: a) rapidly inserting the lance into the bore as far as a predetermined first axial position, which is located, in the insertion direction, in front of a bottom end of a bore portion intended for machining, wherein the insertion takes place in a rotation-free manner and with the balls recessed into the outer circumference of the lance , b) passing along an axial path remaining between the predetermined first axial position and the bottom end of the bore portion intended for machining, wherein, during the passage, the initially rotation-free lance is set in rotation at a predetermined rotational speed and at the same time the balls of the lance are deflected radially into their roller-burnishing position, c) retracting the lance , effecting roller-burnishing, counter to the insertion direction from the bottom end, defining an initial roller-burnishing position, of the bore portion to its upper end defining a final roller-burnishing position, wherein the rotational speed, reached in step b), of the lance is more or less maintained and the balls remain deflected radially in their roller-burnishing position, d) rapidly removing the lance from the bore, wherein the lance is set into a rotation-free state and its balls are recessed into the outer circumference of the lance . a) rapidly inserting the lance into the bore as far as a predetermined first axial position, which is located, in the insertion direction, in front of a bottom end of a bore portion intended for machining, wherein the insertion takes place in a rotation-free manner and with the balls recessed into the outer circumference of the lance , b) passing along an axial path remaining between the predetermined first axial position and the bottom end of the bore portion intended for machining, wherein, during the passage, the initially rotation-free lance is set in rotation at a predetermined rotational speed and at the same time the balls of the lance are deflected radially into their roller-burnishing position, c) retracting the lance , effecting roller-burnishing, counter to the insertion direction from the bottom end, defining an initial roller-burnishing position, of the bore portion to its upper end defining a final roller-burnishing position, wherein the rotational speed, reached in step b), of the lance is more or less maintained and the balls remain deflected radially in their roller-burnishing position, d) rapidly removing the lance from the bore, wherein the lance is set into a rotation-free state and its balls are recessed into the outer circumference of the lance .
A method for allowing a first party and a second party to obtain shared secret information, the method comprising the steps of: receiving, by the first party, a first signal, and detecting, by the first party, a sequence of values X encoded in the received first signal to obtain a sequence of values A = X + N A where N A is a random sequence comprising detector noise associated with a detector of the first party; receiving, by the second party, the first signal, and detecting, by the second party, the sequence of values X encoded in the received first signal to obtain a sequence of values B = X + N B where N B is a random sequence comprising detector noise associated with a detector of the second party; and performing, by the first and second parties, a data matching procedure to identify corresponding pairs of values, a i , b i , in respective sequences A and B , that match, wherein sequences A and B are discrete-valued sequences equal to, derived from, or derived using, sequences A and B , wherein the shared secret information is equal to, or derived from, or derived using, the matching values in sequences A and B , and wherein the first signal is encoded and transmitted by one of: the first party; and a party other than the first and second parties. receiving, by the first party, a first signal, and detecting, by the first party, a sequence of values X encoded in the received first signal to obtain a sequence of values A = X + N A where N A is a random sequence comprising detector noise associated with a detector of the first party; receiving, by the second party, the first signal, and detecting, by the second party, the sequence of values X encoded in the received first signal to obtain a sequence of values B = X + N B where N B is a random sequence comprising detector noise associated with a detector of the second party; and performing, by the first and second parties, a data matching procedure to identify corresponding pairs of values, a i , b i , in respective sequences A and B , that match, wherein sequences A and B are discrete-valued sequences equal to, derived from, or derived using, sequences A and B , wherein the shared secret information is equal to, or derived from, or derived using, the matching values in sequences A and B , and wherein the first signal is encoded and transmitted by one of: the first party; and a party other than the first and second parties.
Method for operating a mobile, self-propelled device , in particular floor cleaning device such as a suction and/or dusting and/or wiping robot, with which a detection facility provided for navigation is used to determine a cover element arranged on a device housing of the mobile self-propelled device as open or closed, wherein the mobile, self-propelled device carries out a driving manoeuvre to automatically close the cover element when a cover element is open.
A spinal construct comprising: at least one member that defines a first implant cavity and a second implant cavity oriented transverse to the first implant cavity , the at least one member having a surface that includes a lock disposed with the first implant cavity , wherein the lock comprises a first spring tab and a second spring tab engageable with a spinal rod and extending into the first implant cavity , wherein the at least one member includes spaced apart arms , including a first arm and a second arm , that define the second implant cavity , and wherein the first arm includes the first spring tab and the second arm includes the second spring tab . at least one member that defines a first implant cavity and a second implant cavity oriented transverse to the first implant cavity , the at least one member having a surface that includes a lock disposed with the first implant cavity , wherein the lock comprises a first spring tab and a second spring tab engageable with a spinal rod and extending into the first implant cavity , wherein the at least one member includes spaced apart arms , including a first arm and a second arm , that define the second implant cavity , and wherein the first arm includes the first spring tab and the second arm includes the second spring tab .
Energy transmission device for a watercraft with the following features: a) on the land side, a tower is disposed which carries a boom , wherein the boom is connected to the tower so as to be pivotable about a horizontal and a vertical axis (Y, Z); b) the boom has at its free end a first plug which can be coupled to a second plug on the watercraft for transmitting electrical energy; c) the plug on the boom is configured to come into electrical contact with the second, upwardly oriented plug on the watercraft in a vertical plugging movement from above for transmitting energy by pivoting the boom relative to the tower , characterized in that d) the boom is telescopic. a) on the land side, a tower is disposed which carries a boom , wherein the boom is connected to the tower so as to be pivotable about a horizontal and a vertical axis (Y, Z); b) the boom has at its free end a first plug which can be coupled to a second plug on the watercraft for transmitting electrical energy; c) the plug on the boom is configured to come into electrical contact with the second, upwardly oriented plug on the watercraft in a vertical plugging movement from above for transmitting energy by pivoting the boom relative to the tower , characterized in that d) the boom is telescopic.
A lamp comprising: - an LED; and - An outage detection circuit for detecting a defective LED, the outage detection circuit being adapted to be coupled across the LED (D1), the outage detection circuit comprising: - a top voltage detector coupled to the LED for detecting a maximum voltage across the LED, the top voltage detector having a top voltage terminal (Tout) for supplying a top voltage signal; - a differential amplifier comprising a non-inverting input and an inverting input, wherein the non-inverting input is coupled to the top voltage terminal for receiving the top voltage signal as a first input signal, and wherein the inverting input is coupled to a reference voltage terminal, the reference voltage terminal being configured to supply a reference voltage (Vref) as a second input signal, the differential amplifier comprising an output terminal for supplying an outage detection signal, characterized in that , the reference voltage is selected to be lower than an expected LED operating voltage, and for detecting a defective LED which is adapted to be coupled to a DC-DC converter circuit for receiving a power signal, the outage detection circuit is adapted to supply the outage detection signal having a high voltage when the LED is not defective and a low voltage when the LED becomes a short circuit when defective. - an LED; and - An outage detection circuit for detecting a defective LED, the outage detection circuit being adapted to be coupled across the LED (D1), the outage detection circuit comprising: - a top voltage detector coupled to the LED for detecting a maximum voltage across the LED, the top voltage detector having a top voltage terminal (Tout) for supplying a top voltage signal; - a differential amplifier comprising a non-inverting input and an inverting input, wherein the non-inverting input is coupled to the top voltage terminal for receiving the top voltage signal as a first input signal, and wherein the inverting input is coupled to a reference voltage terminal, the reference voltage terminal being configured to supply a reference voltage (Vref) as a second input signal, the differential amplifier comprising an output terminal for supplying an outage detection signal,
A method, comprising: receiving , via an application server , a specification for a virtual container from a service provider, the specification including analytic components, data ingress parameters, and configuration information, the application server being separate from the virtual container , the configuration information comprising a software-defined network layout and a storage requirement; generating , based on the received specification, a virtual container comprising the analytic components, the virtual container configured to access data according to the data ingress parameters, the virtual container further configured according to the specified configuration information; authenticating a first customer for services associated with the service provider; and in response to authenticating the first customer, authorizing the virtual container to receive secure data from a first data repository associated with the first customer, the virtual container configured to limit access to and from unauthorized systems such that the secure data can be received into the virtual container for analysis therein but cannot be transmitted out of the virtual container . receiving , via an application server , a specification for a virtual container from a service provider, the specification including analytic components, data ingress parameters, and configuration information, the application server being separate from the virtual container , the configuration information comprising a software-defined network layout and a storage requirement; generating , based on the received specification, a virtual container comprising the analytic components, the virtual container configured to access data according to the data ingress parameters, the virtual container further configured according to the specified configuration information; authenticating a first customer for services associated with the service provider; and in response to authenticating the first customer, authorizing the virtual container to receive secure data from a first data repository associated with the first customer, the virtual container configured to limit access to and from unauthorized systems such that the secure data can be received into the virtual container for analysis therein but cannot be transmitted out of the virtual container .
A method for determining a cancer treatment for a patient, comprising: determining a BH3 profile for the patient's tumor or cancer cell specimen purified from a bone marrow aspirate of the patient, wherein the BH3 profile comprises permeabilizing the patient's tumor or cancer cells and determining a change in mitochondrial membrane potential upon contacting the permeabilized cells with a NOXA peptide, wherein the NOXA peptide comprises the amino acid sequence of SEQ ID NO: 1; and classifying the patient for likelihood of clinical response to one or more cancer treatments, wherein the cancer treatment comprises alvocidib, mitoxantrone, and cytarabine (Ara-C), and wherein the cancer for which the cancer treatment is determined is a hematologic cancer, thereby determining the cancer treatment for the patient. determining a BH3 profile for the patient's tumor or cancer cell specimen purified from a bone marrow aspirate of the patient, wherein the BH3 profile comprises permeabilizing the patient's tumor or cancer cells and determining a change in mitochondrial membrane potential upon contacting the permeabilized cells with a NOXA peptide, wherein the NOXA peptide comprises the amino acid sequence of SEQ ID NO: 1; and classifying the patient for likelihood of clinical response to one or more cancer treatments, wherein the cancer treatment comprises alvocidib, mitoxantrone, and cytarabine (Ara-C), and wherein the cancer for which the cancer treatment is determined is a hematologic cancer, thereby determining the cancer treatment for the patient.
A compound having the following formula (I): wherein: ■ n is an integer comprised between 10 and 2 000, preferably between 15 and 1 500; ■ R a is selected from the group consisting of: H, linear or branched (C 1 -C 5 )alkyl, and halogen atom; ■ A comprises at least one repeating unit (U) having the formula (U1) or (U2): with R a being as defined above and R a" being selected from the group consisting of H, -CH=CH 2 , and -C(=CH 2 )(R a ), R a being as defined above; ■ B 1 and B 2 , independently of each other, have the following formula (B): or the following formula (C): wherein at least one of B 1 and B 2 has the formula (B), wherein: - X is: • a bond or • a group of formula -NH-X 1 -, wherein X 1 is a linear or branched (C 1 -C 5 )alkylene group; - Y is selected from the linear and branched (C 1 -C 5 )alkylene groups; - Z and Z' are independently of each other -O- or -NH-; - W and W' are independently of each other selected from the group consisting of: -C(=O)-NH-Y'-, -C(=O)-Y'-, and -Y'- groups, Y' representing a linear or branched (C 1 -C 5 )alkylene group, preferably a (C 1 -C 3 )alkylene group. ■ n is an integer comprised between 10 and 2 000, preferably between 15 and 1 500; ■ R a is selected from the group consisting of: H, linear or branched (C 1 -C 5 )alkyl, and halogen atom; ■ A comprises at least one repeating unit (U) having the formula (U1) or (U2): with R a being as defined above and R a" being selected from the group consisting of H, -CH=CH 2 , and -C(=CH 2 )(R a ), R a being as defined above; ■ B 1 and B 2 , independently of each other, have the following formula (B): or the following formula (C): wherein at least one of B 1 and B 2 has the formula (B), - X is: • a bond or • a group of formula -NH-X 1 -, wherein X 1 is a linear or branched (C 1 -C 5 )alkylene group; • a bond or • a group of formula -NH-X 1 -, wherein X 1 is a linear or branched (C 1 -C 5 )alkylene group; - Y is selected from the linear and branched (C 1 -C 5 )alkylene groups; - Z and Z' are independently of each other -O- or -NH-; - W and W' are independently of each other selected from the group consisting of: -C(=O)-NH-Y'-, -C(=O)-Y'-, and -Y'- groups, Y' representing a linear or branched (C 1 -C 5 )alkylene group, preferably a (C 1 -C 3 )alkylene group.
An adenine phosphoribosyltransferase variant consisting of an amino acid sequence represented by SEQ ID NO: 1, wherein alanine, which is an amino acid corresponding to position 122 of SEQ ID NO: 3, is substituted with threonine.