mhurhangee/patent-ind-claim-en huggingface dataset:
A method for selecting a policy control network element, wherein the method comprises: receiving (S1418), by a first policy control network element, a policy control creation request from a first session management network element, wherein the policy control creation request comprises an identifier of a terminal, single network slice selection assistance information, S-NSSAI, and a data network name, DNN; sending (S 1419), by the first policy control network element, the identifier of the terminal, the S-NSSAI, the DNN, and an identifier of the first policy control network element to a binding support network element; and receiving (S1419), by the first policy control network element, an identifier of a second policy control network element from the binding support network element, and sending the identifier of the second policy control network element to the first session management network element, wherein the identifier of the second policy control network element is an identifier that is of a policy control network element, that corresponds to the identifier of the terminal, the S-NSSAI, and the DNN, and that is stored by the binding support network element. receiving (S1418), by a first policy control network element, a policy control creation request from a first session management network element, wherein the policy control creation request comprises an identifier of a terminal, single network slice selection assistance information, S-NSSAI, and a data network name, DNN; sending (S 1419), by the first policy control network element, the identifier of the terminal, the S-NSSAI, the DNN, and an identifier of the first policy control network element to a binding support network element; and receiving (S1419), by the first policy control network element, an identifier of a second policy control network element from the binding support network element, and sending the identifier of the second policy control network element to the first session management network element, wherein the identifier of the second policy control network element is an identifier that is of a policy control network element, that corresponds to the identifier of the terminal, the S-NSSAI, and the DNN, and that is stored by the binding support network element.
A control system for a forklift attachment, said system comprising: a) a regulator used for controlling load-clamping grippers; b) said regulator adjusting the grippers' clamping force to a predetermined initial level; c) said regulator being supplied with a signal from a slip sensor about load slippage between the clamping grippers; d) a signal arriving in said regulator for adjusting the clamping force to a higher initial level; characterized in that e) said regulator adjusting automatically, if necessary, the grippers' clamping force to a predetermined second, higher initial level; f) said regulator being supplied with a signal from a slip sensor about load slippage and required further clamping throughout an entire lift and transfer of the load. a) a regulator used for controlling load-clamping grippers; b) said regulator adjusting the grippers' clamping force to a predetermined initial level; c) said regulator being supplied with a signal from a slip sensor about load slippage between the clamping grippers; d) a signal arriving in said regulator for adjusting the clamping force to a higher initial level; characterized in that e) said regulator adjusting automatically, if necessary, the grippers' clamping force to a predetermined second, higher initial level; f) said regulator being supplied with a signal from a slip sensor about load slippage and required further clamping throughout an entire lift and transfer of the load.
A spinal implant comprising: a first member defining a longitudinal axis (A1) and including a wall that defines an axial cavity and at least one lateral opening configured for disposal of an instrument, wherein the wall of the first member includes an inner surface that defines a circumferential cavity ; a second member configured for disposal within the axial cavity and including a wall having an axial surface disposed along a thickness (t2) thereof, the axial surface defining at least a portion of an axial opening and including a plurality of gear teeth disposed therealong, wherein the teeth are for being engageable with the instrument (I) to axially translate the second member relative to the first member ; a third member (58; 158) disposed in the circumferential cavity , the third member (58; 158) being rotatable relative to the inner surface and engageable with the second member ; and a lock (80; 164; 264; 380) selectively engageable with the third member (58; 158) to prevent axial translation. a first member defining a longitudinal axis (A1) and including a wall that defines an axial cavity and at least one lateral opening configured for disposal of an instrument, wherein the wall of the first member includes an inner surface that defines a circumferential cavity ; a second member configured for disposal within the axial cavity and including a wall having an axial surface disposed along a thickness (t2) thereof, the axial surface defining at least a portion of an axial opening and including a plurality of gear teeth disposed therealong, wherein the teeth are for being engageable with the instrument (I) to axially translate the second member relative to the first member ; a third member (58; 158) disposed in the circumferential cavity , the third member (58; 158) being rotatable relative to the inner surface and engageable with the second member ; and a lock (80; 164; 264; 380) selectively engageable with the third member (58; 158) to prevent axial translation.
A containment assembly for a driver, the containment assembly comprising: a coupler having a first end configured to be coupled to an intraosseous needle set and a second end configured to be coupled to a driver such that the driver can move the intraosseous needle set; and a substantially rigid casing comprising: a front portion having a first opening and a second opening , the front portion coupled to the coupler such that the coupler covers the first opening , and the second opening configured to receive the driver such that the driver can be coupled to the coupler ; and a back portion movably coupled to the front portion , the back portion configured to cooperate with the front portion to accommodate the driver that is coupled to the coupler , wherein the substantially rigid casing can be coupled to and decoupled from the second end of the coupler . a coupler having a first end configured to be coupled to an intraosseous needle set and a second end configured to be coupled to a driver such that the driver can move the intraosseous needle set; and a substantially rigid casing comprising: a front portion having a first opening and a second opening , the front portion coupled to the coupler such that the coupler covers the first opening , and the second opening configured to receive the driver such that the driver can be coupled to the coupler ; and a back portion movably coupled to the front portion , the back portion configured to cooperate with the front portion to accommodate the driver that is coupled to the coupler , a front portion having a first opening and a second opening , the front portion coupled to the coupler such that the coupler covers the first opening , and the second opening configured to receive the driver such that the driver can be coupled to the coupler ; and a back portion movably coupled to the front portion , the back portion configured to cooperate with the front portion to accommodate the driver that is coupled to the coupler , wherein the substantially rigid casing can be coupled to and decoupled from the second end of the coupler .
A computer-implemented method for determining a malignancy of a nodule, comprising: receiving a medical image of a nodule of a patient; defining a patch surrounding the nodule in the medical image; and predicting a malignancy of the nodule in the patch using a trained deep image-to-image network, wherein the method further comprises training the trained deep image-to-image network using training images depicting particular nodules and results of a histopathological examination of the particular nodules, wherein training the trained deep image-to-image network using training images depicting particular nodules and results of a histopathological examination of the particular nodules further comprises: training the trained deep image-to-image network using additional training images depicting additional nodules and results of a radiologist examination of the additional nodules. receiving a medical image of a nodule of a patient; defining a patch surrounding the nodule in the medical image; and predicting a malignancy of the nodule in the patch using a trained deep image-to-image network, wherein the method further comprises training the trained deep image-to-image network using training images depicting particular nodules and results of a histopathological examination of the particular nodules, wherein training the trained deep image-to-image network using training images depicting particular nodules and results of a histopathological examination of the particular nodules further comprises: training the trained deep image-to-image network using additional training images depicting additional nodules and results of a radiologist examination of the additional nodules.
A reactor, comprising: a thermal barrier comprising an yttria stabilized zirconia, wherein said thermal barrier surrounds a combustion zone; a cooling jacket inner wall; a binder comprising an alloy of copper and having a thermal conductivity of between 10 W.m-1.K-1 and 150 W.m-1.K-1 disposed between said cooling jacket inner wall and said thermal barrier; a cooling jacket outer wall, wherein said cooling jacket inner wall and said cooling jacket outer wall define a cooling channel; and an outer reactor wall disposed over said cooling jacket outer wall, wherein said outer reactor wall is impermeable and is configured to contain high pressure gas within said reactor. a thermal barrier comprising an yttria stabilized zirconia, wherein said thermal barrier surrounds a combustion zone; a cooling jacket inner wall; a binder comprising an alloy of copper and having a thermal conductivity of between 10 W.m-1.K-1 and 150 W.m-1.K-1 disposed between said cooling jacket inner wall and said thermal barrier; a cooling jacket outer wall, wherein said cooling jacket inner wall and said cooling jacket outer wall define a cooling channel; and an outer reactor wall disposed over said cooling jacket outer wall, wherein said outer reactor wall is impermeable and is configured to contain high pressure gas within said reactor.
A liquid ejection head , comprising: a plurality of drive flow paths each connected to an ejection nozzle ; a plurality of dummy flow paths each connected to a dummy nozzle , the dummy flow paths each being adjacent to at least one of the drive flow paths; and a plurality of side walls , each being between one of the drive flow paths and one of the dummy flow paths and configured to simultaneously change volumes of the one of the drive flow paths and one of the dummy flow paths in response to drive signals, wherein a first acoustic resonance period of liquid in each of the dummy flow paths is shorter than a second acoustic resonance period of the liquid in each of the drive flow paths. a plurality of drive flow paths each connected to an ejection nozzle ; a plurality of dummy flow paths each connected to a dummy nozzle , the dummy flow paths each being adjacent to at least one of the drive flow paths; and a plurality of side walls , each being between one of the drive flow paths and one of the dummy flow paths and configured to simultaneously change volumes of the one of the drive flow paths and one of the dummy flow paths in response to drive signals, wherein a first acoustic resonance period of liquid in each of the dummy flow paths is shorter than a second acoustic resonance period of the liquid in each of the drive flow paths.
A liquid crystal display (LCD) device, comprising an opposing substrate, an array substrate, a liquid crystal layer disposed between the opposing substrate and the array substrate and a backlight module on the array substrate side, wherein the array substrate is provided with a plurality of pixel units; each pixel unit comprises a plurality of sub-pixel units for displaying different colors; quantum dot (QD) layers, allowing backlight from the backlight module, used for display, to be transmitted, are disposed in a plane at positions on the array substrate corresponding to the sub-pixel units of all the pixel units; the QD layers are adapted to be excited by ultraviolet light in sunlight and to emit white light in each sub-pixel unit; and the LCD is provided with color filters corresponding to the sub-pixel units; and the color filters are disposed between the QD layers and the opposing substrate.
A system, comprising: a therapy device configured to be implanted in a patient; a patient remote device configured to receive therapy data transmitted from the therapy device ; a consumer electronic device operable by the patient, the consumer electronic device configured to control a predetermined set of therapy device functions in response to patient inputs to the consumer electronic device , the consumer electronic device further configured to: receive therapy data transmitted from the therapy device via the patient remote device by uploading therapy data from a memory of the patient remote device to a memory of the consumer electronic device; and present the therapy data on a display of the consumer electronic device . a therapy device configured to be implanted in a patient; a patient remote device configured to receive therapy data transmitted from the therapy device ; a consumer electronic device operable by the patient, the consumer electronic device configured to control a predetermined set of therapy device functions in response to patient inputs to the consumer electronic device , the consumer electronic device further configured to: receive therapy data transmitted from the therapy device via the patient remote device by uploading therapy data from a memory of the patient remote device to a memory of the consumer electronic device; and present the therapy data on a display of the consumer electronic device . receive therapy data transmitted from the therapy device via the patient remote device by uploading therapy data from a memory of the patient remote device to a memory of the consumer electronic device; and present the therapy data on a display of the consumer electronic device .
A medicament device sensor configured for removable attachment to a medicament device, the medicament device sensor comprises: a body comprising a bottom surface , the bottom surface shaped so as to mate to a corresponding outer surface of the medicament device; a first wall perpendicular to the bottom surface coupled to a first edge of the bottom surface , a second wall perpendicular to the bottom surface coupled to a second edge of the bottom surface , the second edge opposite that of the first edge; and an audio sensor coupled to the bottom surface of the body configured to detect audio corresponding to use of the medicament device; characterized in that the first wall comprises a securement clip configured to attach the first wall of the medical device sensor to a ledge on a complementary surface of the medicament device, wherein the securement clip comprises a release tab that when pressed causes the securement clip to rotate away from the ledge such that the medicament device can slide vertically relative to the medicament device sensor , the release tab having a topmost surface contiguous with a topmost surface of the first wall ; and in that a plurality of pressure sensors are coupled to the bottom surface of the body configured to detect pressure corresponding to use of the medicament device. a body comprising a bottom surface , the bottom surface shaped so as to mate to a corresponding outer surface of the medicament device; a first wall perpendicular to the bottom surface coupled to a first edge of the bottom surface , a second wall perpendicular to the bottom surface coupled to a second edge of the bottom surface , the second edge opposite that of the first edge; and an audio sensor coupled to the bottom surface of the body configured to detect audio corresponding to use of the medicament device; characterized in that the first wall comprises a securement clip configured to attach the first wall of the medical device sensor to a ledge on a complementary surface of the medicament device, wherein the securement clip comprises a release tab that when pressed causes the securement clip to rotate away from the ledge such that the medicament device can slide vertically relative to the medicament device sensor , the release tab having a topmost surface contiguous with a topmost surface of the first wall ; and in that a plurality of pressure sensors are coupled to the bottom surface of the body configured to detect pressure corresponding to use of the medicament device.
Wind turbine having a wind rotor , a generator which is driven by the said wind rotor and interacts with a converter for generating electrical power, and a line system for connection to the converter , comprising a neutral conductor and a current-carrying conductor , wherein, at one end of the conductor , an impedance element is directly connected to the neutral conductor between the neutral conductor and the conductor , wherein the impedance element has a damping impedance, and wherein the damping impedance corresponds to a characteristic impedance of the conductor .
A polypeptide according to Formula (I): wherein Xaa1 is deleted or independently selected from Ala, Cys, Glu, Gly, His, Arg, Ser and Lys; Xaa3 is independently selected from Gly, His, Arg, Ser and Asn; Xaa14 is Glu; Xaa17 is independently selected from His, Arg, Lys and Val; Xaa18 is independently selected from Arg, Lys and His; Xaa21 is independently selected from Ala, Lys, Gln, Ser and Asn; Xaa22 is independently selected from Glu, Gln, Ser, Thr and Asn; Xaa26 is independently selected from Pro, Arg and Ile; Xaa31 is independently selected from Ser, Glu, Asp and Asn; Xaa35 is independently selected from His, Arg, Lys, Asp, Gln and Glu; wherein the amino acid sequence numbering corresponds to the amino acid numbering sequence of SEQ ID No: 2; wherein the C-terminal of the polypeptide is an amide; wherein the C-terminal may, optionally, be derivatised; and wherein the polypeptide is an amylin receptor agonist. Xaa1 is deleted or independently selected from Ala, Cys, Glu, Gly, His, Arg, Ser and Lys; Xaa3 is independently selected from Gly, His, Arg, Ser and Asn; Xaa14 is Glu; Xaa17 is independently selected from His, Arg, Lys and Val; Xaa18 is independently selected from Arg, Lys and His; Xaa21 is independently selected from Ala, Lys, Gln, Ser and Asn; Xaa22 is independently selected from Glu, Gln, Ser, Thr and Asn; Xaa26 is independently selected from Pro, Arg and Ile; Xaa31 is independently selected from Ser, Glu, Asp and Asn; Xaa35 is independently selected from His, Arg, Lys, Asp, Gln and Glu; wherein the amino acid sequence numbering corresponds to the amino acid numbering sequence of SEQ ID No: 2; wherein the C-terminal of the polypeptide is an amide; wherein the C-terminal may, optionally, be derivatised; and wherein the polypeptide is an amylin receptor agonist.
Method for controlling a parallel connection of at least two resonance converters , wherein input currents (ie 1,1 ; ie 2,1 ) of the resonance converters are tapped on the input side and their differential current (Δie) is determined, wherein the differential current (Δie) is fed to a controller (R1, R2) of at least one resonance converter , characterised in that a switching frequency of at least two switches (S 1 , S 2 ) of at least one resonance converter is changed such that the output current (ia 1.1 , ia 1.2 ; ia 2.1 , ia 2.2 ) of the one resonance converter under a variable load is equal to the output current (ia 1.1 , ia 1.2 ; ia 2.1 , ia 2.2 ) of the other resonance converter .
Sealing device for sealing a piston rod of a reciprocating compressor , the sealing device comprising a first axial device end , configured to face toward a cylinder of the compressor , and an opposite second axial device end , configured to face toward a crankcase of the compressor , a number of first packing retainers , each retainer including a retaining opening in which a first packing ring is arranged, a second packing retainer , including a retaining opening in which a second packing ring is arranged, the second retainer being positioned closer to the second axial device end than the number of first packing retainers in an axial direction of the sealing device , wherein the second packing ring is an uncut ring, comprising a continuous inner circumferential sealing surface , wherein the second packing ring is made from a material comprising a polymer, characterized in that the material has a thermal expansion coefficient (α), which is at least two times higher than the thermal expansion coefficient (αFE) of iron, wherein at or below a defined activation temperature an inner diameter (d_i) of the second packing ring is smaller than an outer diameter (D_a) of the piston rod to be sealed, such that in the mounted state of the sealing device in the compressor the second packing ring is prestressed in a radial direction in order to form a tight seal between the continuous inner circumferential sealing surface of the second packing ring and the outer circumferential surface of the piston rod , wherein at a given operating temperature, the inner diameter (d_i) of the second packing ring is larger than the outer diameter (D_a) of the piston rod , such that in the mounted state of the sealing device in the compressor the continuous inner circumferential sealing surface of the second sealing ring is detached from the outer circumferential surface of the piston rod in order to provide a leakage path past the second packing ring in the axial direction.
A sectional door comprising horizontal panels mutually articulated and slidable along lateral guides between a position for opening and a position for closing a doorway , a horizontal shaft extending above the doorway and on which there are wound helical springs for the balancing of the sectional door , a drive carrier connected at the centre-line of the upper panel of the door and mobile along a transversal horizontal guide extending above behind the doorway , and an operating system comprising a gear motor for displacing the drive carrier along said horizontal guide through a flexible transmission, wherein said gear motor is housed in a box (13; 13A) installed in proximity of the end of said guide adjacent to said horizontal shaft , wherein said box (13; 13A) of the gear motor has a flattened configuration suitable to be positioned substantially at the same level as said horizontal shaft , wherein said gear motor comprises an electric motor , disposed horizontally, configured to actuate, by means of a worm screw , a vertical axis helical wheel on which there is fitted a grooved output shaft which controls the movement of said drive carrier along said guide , characterized in that said box is formed with projections provided with bushings that can be traversed by said horizontal shaft , wherein said bushings are suitable to be opened by removing respective lower blocks .