mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a user equipment, UE, comprising: receiving a channel state information-reference symbols, CSI-RS, sequence using an NxK CSI-RS resource, the NxK CSI-RS resource comprising N non-adjacent orthogonal frequency division multiplexing, OFDM, symbols by K non-adjacent physical resource blocks, PRBs, where N and K are positive integers, wherein the NxK CSI-RS resource comprises repetitions of CSI-RS resource components, each CSI-RS resource component being within a time-frequency space defined by n consecutive OFDM symbols in the time dimension and k consecutive PRBs in the frequency dimension, wherein for each CSI-RS resource component, the CSI-RS transmission makes use of n 1 out of the n OFDM symbols and makes use of k 1 out of the k PRBs, where n, k, n 1 , k 1 are positive integers, wherein there is at least one of a gap between consecutive CSI-RS resource components of a CSI-RS resource in the time dimension and a gap between consecutive CSI-RS resource components of the CSI-RS resource in the frequency dimension, characterised in that the CSI-RS resource component is formed of s different CSI-RS resource component unit types, each CSI-RS resource component unit type comprising a respective number v of adjacent resource elements in the frequency domain and a respective number u of adjacent OFDM symbols in the time domain, wherein u and v are positive integers. receiving a channel state information-reference symbols, CSI-RS, sequence using an NxK CSI-RS resource, the NxK CSI-RS resource comprising N non-adjacent orthogonal frequency division multiplexing, OFDM, symbols by K non-adjacent physical resource blocks, PRBs, where N and K are positive integers, wherein the NxK CSI-RS resource comprises repetitions of CSI-RS resource components, each CSI-RS resource component being within a time-frequency space defined by n consecutive OFDM symbols in the time dimension and k consecutive PRBs in the frequency dimension, wherein for each CSI-RS resource component, the CSI-RS transmission makes use of n 1 out of the n OFDM symbols and makes use of k 1 out of the k PRBs, where n, k, n 1 , k 1 are positive integers, wherein there is at least one of a gap between consecutive CSI-RS resource components of a CSI-RS resource in the time dimension and a gap between consecutive CSI-RS resource components of the CSI-RS resource in the frequency dimension, characterised in that the CSI-RS resource component is formed of s different CSI-RS resource component unit types, each CSI-RS resource component unit type comprising a respective number v of adjacent resource elements in the frequency domain and a respective number u of adjacent OFDM symbols in the time domain, wherein u and v are positive integers.
An installation for transporting containers having necks, the installation comprising an intermediate rotary platform provided in its periphery with slots (7.2) and bordered by a feed unit for bringing containers into the slots and a unit for discharging containers from the slots, a jaw (8.2) being mounted on the platform in the vicinity of each slot in order to pivot between a closed position for holding the container in the slot and an open position, each jaw being provided with blocking means for blocking it in each of its positions, and including a first contact surface (9.2) and a second contact surface (10.2), the installation being characterized in that the first contact surface (9.2) projects into the slot when the jaw is in the open position in such a manner that when the neck is inserted into the slot it pushes against the first contact surface and brings the jaw into the closed position, and in that the second contact surface (10.2) faces the slot when the jaw is in the closed position in such a manner that when the neck is discharged from the slot it pushes against the second contact surface and brings the jaw into the open position.
A medical system comprising: an implantable medical device comprising an indicator tag , wherein the indicator tag is responsive to an analyte; a light source configured to emit light onto the indicator tag , wherein the emitted light comprises at least one wavelength of light and wherein the indicator tag emanates light, in response to the emitted light, that corresponds to whether the indicator tag is exposed the analyte; an optical sensor configured to receive light, the received light comprising at least a portion of the emanated light, wherein the received light comprises at least one wavelength of light; and a processor communicatively coupled to the optical sensor , wherein the processer is configured to determine whether the indicator tag is exposed to the analyte by determining a ratio of an intensity of the received light to an intensity of the emitted light, wherein the processor is configured to determine the ratio of received light to emitted light for more than one narrowband of wavelengths and compare the ratios for different narrowbands of wavelengths. an implantable medical device comprising an indicator tag , wherein the indicator tag is responsive to an analyte; a light source configured to emit light onto the indicator tag , wherein the emitted light comprises at least one wavelength of light and wherein the indicator tag emanates light, in response to the emitted light, that corresponds to whether the indicator tag is exposed the analyte; an optical sensor configured to receive light, the received light comprising at least a portion of the emanated light, wherein the received light comprises at least one wavelength of light; and a processor communicatively coupled to the optical sensor , wherein the processer is configured to determine whether the indicator tag is exposed to the analyte by determining a ratio of an intensity of the received light to an intensity of the emitted light, wherein the processor is configured to determine the ratio of received light to emitted light for more than one narrowband of wavelengths and compare the ratios for different narrowbands of wavelengths.
An automatic traveling method, comprising: causing a work vehicle to automatically travel according to a target route (R) in a work area (F) where crops (V) are planted; changeably setting, with respect to the target route (R), a threshold value of a deviation including at least one of a position deviation and an orientation deviation of the work vehicle ; and causing the work vehicle to execute a correction operation for correcting the deviation if the deviation exceeds the threshold value, to avoid collision against the crops (V) during automatic travelling. causing a work vehicle to automatically travel according to a target route (R) in a work area (F) where crops (V) are planted; changeably setting, with respect to the target route (R), a threshold value of a deviation including at least one of a position deviation and an orientation deviation of the work vehicle ; and causing the work vehicle to execute a correction operation for correcting the deviation if the deviation exceeds the threshold value, to avoid collision against the crops (V) during automatic travelling.
A synchronization signal transmitting method, wherein the method comprises: • configuring, by a base station, one or more groups of synchronization signals, wherein each group of synchronization signals is mapped to N physical resource block, PRBs in frequency domain and occupies multiple symbols in time domain, and N is a positive integer greater than or equal to 1, wherein each group of synchronization signals comprises a primary synchronization signal, PSS, and a secondary synchronization signal, SSS, and the PSS and the SSS are mapped to the N PRBs in frequency domain, wherein in time domain, the PSS occupies P 1 symbols, the SSS occupies P 2 symbols, N is a positive integer greater than or equal to 1, and P 1 and P2 are both positive integers, wherein each group of synchronization signals occupies different frequency domain resources on different symbols (step 101); and • transmitting, by the base station, the one or more groups of synchronization signals by using beams, wherein when there are multiple groups of synchronization signals, the synchronization signals in different groups correspond to different spatial resources, and each group of synchronization signals is transmitted by using a different beam, wherein each group of synchronization signals is transmitted in a horizontal direction by using a wide beam to ensure omnidirectional coverage, and transmitted in a vertical direction by using a narrow beam (step 102) to concentrate transmit power in a limited spatial range. • configuring, by a base station, one or more groups of synchronization signals, wherein each group of synchronization signals is mapped to N physical resource block, PRBs in frequency domain and occupies multiple symbols in time domain, and N is a positive integer greater than or equal to 1, wherein each group of synchronization signals comprises a primary synchronization signal, PSS, and a secondary synchronization signal, SSS, and the PSS and the SSS are mapped to the N PRBs in frequency domain, wherein in time domain, the PSS occupies P 1 symbols, the SSS occupies P 2 symbols, N is a positive integer greater than or equal to 1, and P 1 and P2 are both positive integers, wherein each group of synchronization signals occupies different frequency domain resources on different symbols (step 101); and • transmitting, by the base station, the one or more groups of synchronization signals by using beams, wherein when there are multiple groups of synchronization signals, the synchronization signals in different groups correspond to different spatial resources, and each group of synchronization signals is transmitted by using a different beam, wherein each group of synchronization signals is transmitted in a horizontal direction by using a wide beam to ensure omnidirectional coverage, and transmitted in a vertical direction by using a narrow beam (step 102) to concentrate transmit power in a limited spatial range.
A method for producing an implant, wherein particles of the group of ultra-high molecular weight polyethylene (UHMWPE) and/or high-density polyethylene (HDPE) and/or polypropylene (PP) are fused together layer by layer by means of a selective laser sintering method, characterized in that a heat treatment is carried out after the selective laser sintering such that pores of the implant to be produced remain unsealed to a surface of the implant or a heat treatment is carried out after the selective laser sintering such that the pores of the implant to be produced are sealed to a surface of the implant in partial areas only.
A valve construction for a PET keg comprising a valve casing with an annular shoulder surrounding a central opening or hole of the valve casing, the valve casing comprising means of connection with a keg neck , a hollow stem , a valve element , a spring, an annular flange ; wherein the first end of the stem is open and the second end of the stem is closed with an annular shoulder protruding from the stem; the stem having at least one window therein; wherein the valve element is installed surrounding the stem and is slidable along it, wherein the valve element defines a hole therein surrounded by an annular recess that is configured for engaging with the annular shoulder of the stem and wherein the annular shoulder of the valve casing is configured for engaging with the valve element ; and wherein the spring is installed between the valve element and the annular flange ; characterized in that the valve casing is made in the form of a mushroom comprising a mushroom stem of cylindrical surface and is connected to the annular flange by a threaded connection; in that gas flow openings are provided at the bottom of the annular flange ; in that an annular gasket is provided between the annular flange and the cylindrical surface of the mushroom stem of the valve casing , said annular gasket sealing the connection of the valve casing and the neck of said PET keg; in that the valve element is made of a polymeric material with 40-60 Shore hardness; and in that , when overpressure in a PET keg is above a maximum permissible value, the valve element is irretrievably pressed out and protrudes above the end surface of the valve casing , thereby forming an internal channel for relieving overpressure and preventing the attachment of a dispensing head to the valve construction.
Cable gland for passing a cable through a mounting opening in a mounting wall , in particular a housing wall of an electrical appliance or an electrical cabinet, with a cap nut , a sealing member and a hollow cylindrical mounting socket , - which comprises a socket channel for the passage of the cable , - which comprises a spanner flat for the application of a tool, - which comprises at least a first external thread by means of which the cap nut , which comprises a lead-through opening serving for the passage of the cable, is held, and - which comprises, in the end region facing the cap nut , a conical support surface against which a first corresponding conically extending pressure surface of the sealing member , which is arranged between the cap nut and the mounting socket and which comprises a receiving channel serving for the passage of the cable, abuts, wherein the sealing member comprises, on the side opposite the first pressure surface , a second pressure surface which can be acted upon by the cap nut , and wherein the cap nut comprises a conical inner surface which is geometrically complementary to the second pressure surface of the sealing member , characterised in that in order to increase the static and sliding friction between the first pressure surface of the sealing member and the support surface the support surface comprises structural elements in the form of recesses, protrusions, knurling, corrugations, grooves, scores, creases, scales and/or ridges, which extend radially or beam-shaped at equal intervals, and that the sealing member comprises in the region of the first pressure surface form elements which are complementary to the structural elements . - which comprises a socket channel for the passage of the cable , - which comprises a spanner flat for the application of a tool, - which comprises at least a first external thread by means of which the cap nut , which comprises a lead-through opening serving for the passage of the cable, is held, and - which comprises, in the end region facing the cap nut , a conical support surface against which a first corresponding conically extending pressure surface of the sealing member , which is arranged between the cap nut and the mounting socket and which comprises a receiving channel serving for the passage of the cable, abuts,
A clutch unit comprising: an input-side clutch part that controls transmission and cutoff of input rotational torque; and an output-side clutch part that transmits rotational torque from the input-side clutch part to an output side and cuts off rotational torque reversely input from the output side, wherein the output-side clutch part comprises: a stationary member whose rotation is restricted; and an output member from which rotation is output, wherein the stationary member is provided with a female gear member that meshes with the output member when rotational torque is cut off and releases a meshing state with the output member when rotational torque is transmitted, wherein the output member is provided with a male gear member that meshes with the female gear member so as to be slightly rotatable, and wherein an alignment part that aligns a phase of the male gear member with a phase of the female gear member when rotational torque is cut off and a centering part that returns the male gear member to a neutral position with respect to the output member when rotational torque is transmitted are provided between the male gear member and the output member. an input-side clutch part that controls transmission and cutoff of input rotational torque; and an output-side clutch part that transmits rotational torque from the input-side clutch part to an output side and cuts off rotational torque reversely input from the output side, wherein the output-side clutch part comprises: a stationary member whose rotation is restricted; and an output member from which rotation is output, wherein the stationary member is provided with a female gear member that meshes with the output member when rotational torque is cut off and releases a meshing state with the output member when rotational torque is transmitted, wherein the output member is provided with a male gear member that meshes with the female gear member so as to be slightly rotatable, and wherein an alignment part that aligns a phase of the male gear member with a phase of the female gear member when rotational torque is cut off and a centering part that returns the male gear member to a neutral position with respect to the output member when rotational torque is transmitted are provided between the male gear member and the output member. a stationary member whose rotation is restricted; and an output member from which rotation is output, wherein the stationary member is provided with a female gear member that meshes with the output member when rotational torque is cut off and releases a meshing state with the output member when rotational torque is transmitted, wherein the output member is provided with a male gear member that meshes with the female gear member so as to be slightly rotatable, and wherein an alignment part that aligns a phase of the male gear member with a phase of the female gear member when rotational torque is cut off and a centering part that returns the male gear member to a neutral position with respect to the output member when rotational torque is transmitted are provided between the male gear member and the output member.
Method for simplifying comparing of reference values in medical imaging processes of different medical imaging devices , wherein a data base is available to several spatially separated local medical imaging devices , comprising the steps: - providing, by a configuration module , the data base with reference values , wherein each reference value of the data base is assigned to a defined global identification specifying the medical imaging process; - providing a mapping by a mapping module , that assigns a local identification to the defined global identification for supporting the creation of a label for the medical imaging process and - creating the label for the medical imaging process at the local medical imaging device and/or a local workstation related to the local medical imaging device by using the defined global identification for specifying the medical imaging process. - providing, by a configuration module , the data base with reference values , wherein each reference value of the data base is assigned to a defined global identification specifying the medical imaging process; - providing a mapping by a mapping module , that assigns a local identification to the defined global identification for supporting the creation of a label for the medical imaging process and - creating the label for the medical imaging process at the local medical imaging device and/or a local workstation related to the local medical imaging device by using the defined global identification for specifying the medical imaging process.
A modular support profile consisting of at least one basic profile segment and at least one rod , wherein the at least one basic profile segment exhibits seats and the modular support profile has replaceable connecting elements arranged spaced apart from one another and attachable in the seats of the at least one basic profile segment and each having at least one recess adapted to the cross-sectional profile of the at least one rod , wherein the at least one rod can be pushed through the recesses of the connecting elements , wherein, for attaching at least two rods in the at least one basic profile segment , the recesses of the connecting elements arranged spaced apart from one another exhibit equal spacings for the attachment of the at least two consecutive rods , and the basic profile segment has openings which exhibit the same spacing as the recesses of the connecting elements and the opening area of which is at least as large as or, in particular, larger than the opening area of the recesses , characterized in that the seats are grooves shaped in the basic profile segment , and the connecting elements are insertable into the seats .
Haemostatic device for controlling a blood flow occurring in a haemorrhagic zone located in a hollow organ, comprising: - a flat flexible plate provided with two substantially parallel, opposite faces , said plate comprising an empty internal volume between its two faces, and - connecting means arranged for connecting the internal volume to aspirating means external to said device, so as to create negative pressure in this internal volume , each of the faces being provided with holes configured so that the internal volume and the exterior of the plate communicate via these faces , such that when a negative pressure is created in the internal volume, the aspiration can be communicated simultaneously to two opposite walls of the hollow organ so as to hold them close together. - a flat flexible plate provided with two substantially parallel, opposite faces , said plate comprising an empty internal volume between its two faces, and - connecting means arranged for connecting the internal volume to aspirating means external to said device, so as to create negative pressure in this internal volume ,