mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device including a plurality of antennas, the electronic device comprising: a first antenna configured to transmit and receive signals of a plurality of frequency bands; and a second antenna disposed at an area adjacent to the first antenna, wherein the first antenna comprises: a first wireless communication circuit; a first radiator ; a first feeding part configured to connect the first wireless communication circuit to the first radiator; a first ground part configured to be connected to one end of the first radiator; a switching circuit configured to be connected to the first radiator in an area adjacent to the second antenna; at least one frequency band element in which a first end is connected to the switching circuit and a second end is connected to the first ground part; and characterized in that the electronic device further comprises; at least one isolation element configured to connect the first radiator to the ground part in the area adjacent to the second antenna, wherein the at least one isolation element includes at least one capacitance element or at least one inductance element. a first antenna configured to transmit and receive signals of a plurality of frequency bands; and a second antenna disposed at an area adjacent to the first antenna, wherein the first antenna comprises: a first wireless communication circuit; a first radiator ; a first feeding part configured to connect the first wireless communication circuit to the first radiator; a first ground part configured to be connected to one end of the first radiator; a switching circuit configured to be connected to the first radiator in an area adjacent to the second antenna; at least one frequency band element in which a first end is connected to the switching circuit and a second end is connected to the first ground part; and characterized in that the electronic device further comprises; at least one isolation element configured to connect the first radiator to the ground part in the area adjacent to the second antenna, wherein the at least one isolation element includes at least one capacitance element or at least one inductance element. a first wireless communication circuit; a first radiator ; a first feeding part configured to connect the first wireless communication circuit to the first radiator; a first ground part configured to be connected to one end of the first radiator; a switching circuit configured to be connected to the first radiator in an area adjacent to the second antenna; at least one frequency band element in which a first end is connected to the switching circuit and a second end is connected to the first ground part; and characterized in that the electronic device further comprises; at least one isolation element configured to connect the first radiator to the ground part in the area adjacent to the second antenna, wherein the at least one isolation element includes at least one capacitance element or at least one inductance element.
A refrigerator comprising: an inner casing having a storage chamber defined therein, characterized by further comprising: a middle plate to surround an outer surface of the inner casing ; a thermal-insulating material disposed between the inner casing and the middle plate ; a module mounting casing fixed to the middle plate and having a top opening and an inserting opening ; a cabinet cover to cover the top opening and to define a top appearance of the refrigerator ; and a wireless charging module mounted on the module mounting casing through the inserting opening , wherein the wireless charging module includes a coil part for wirelessly-charging a battery of a mobile device placed on the cabinet cover . a middle plate to surround an outer surface of the inner casing ; a thermal-insulating material disposed between the inner casing and the middle plate ; a module mounting casing fixed to the middle plate and having a top opening and an inserting opening ; a cabinet cover to cover the top opening and to define a top appearance of the refrigerator ; and a wireless charging module mounted on the module mounting casing through the inserting opening , wherein the wireless charging module includes a coil part for wirelessly-charging a battery of a mobile device placed on the cabinet cover .
A method for information transmission in a machine-to-machine telecommunications network , the telecommunications network supporting information transmission between a server and a plurality of communication terminals , the method comprising the steps of: - storing a common group identifier assigned to a group (G) containing at least some of the plurality of terminals ; characterized in that the server is connected via a provisioning interface to a network node storing the common group identifier, and the method further comprises the steps of: - assigning the common group identifier to the plurality of communication terminals via the provisioning interface; - transmitting an information message to the plurality of communication terminals identified by the common group identifier, wherein the information message contains the common group identifier. - storing a common group identifier assigned to a group (G) containing at least some of the plurality of terminals ; - assigning the common group identifier to the plurality of communication terminals via the provisioning interface; - transmitting an information message to the plurality of communication terminals identified by the common group identifier, wherein the information message contains the common group identifier.
A housing assembly for an indoor unit of an air conditioner, comprising: a face frame provided with a front air outlet ; and characterized by : two end covers arranged at a left end and a right end of the face frame respectively, wherein portions of the two end covers are located in front of a front surface of the face frame and define auxiliary air passages (a) with the face frame , each of the two end covers is provided with a side air outlet in communication with the corresponding auxiliary air passage (a), a portion of an inner side wall of each of the auxiliary air passages (a) defined by the face frame forms a guide wall , to direct air from the front air outlet to the side air outlet to supply air to the left and right of the housing assembly ; wherein the face frame comprises a front frame and two side frames , the front frame is provided with the front air outlet , the two side frames are located at the left end and the right end of the front frame respectively and extend backwards, each of portions of a front surface of the front frame at a left end and a right end of the front air outlet is provided with the guide wall , the guide wall obliquely extends backwards in a direction away from the front air outlet , and each guide wall extends to one corresponding side frame ; and the two end covers correspond to the side frames one to one respectively and are located at sides of the side frames away from the front frame , each of the two end covers is provided with a front extension part , and the front extension part is located in front of the corresponding guide wall and defines the auxiliary air passage (a) with the guide wall . two end covers arranged at a left end and a right end of the face frame respectively, wherein portions of the two end covers are located in front of a front surface of the face frame and define auxiliary air passages (a) with the face frame , each of the two end covers is provided with a side air outlet in communication with the corresponding auxiliary air passage (a), a portion of an inner side wall of each of the auxiliary air passages (a) defined by the face frame forms a guide wall , to direct air from the front air outlet to the side air outlet to supply air to the left and right of the housing assembly ; wherein the face frame comprises a front frame and two side frames , the front frame is provided with the front air outlet , the two side frames are located at the left end and the right end of the front frame respectively and extend backwards, each of portions of a front surface of the front frame at a left end and a right end of the front air outlet is provided with the guide wall , the guide wall obliquely extends backwards in a direction away from the front air outlet , and each guide wall extends to one corresponding side frame ; and the two end covers correspond to the side frames one to one respectively and are located at sides of the side frames away from the front frame , each of the two end covers is provided with a front extension part , and the front extension part is located in front of the corresponding guide wall and defines the auxiliary air passage (a) with the guide wall .
A full-face mask assembly for use in medical applications, wherein the mask assembly comprises an upper end and a lower end, wherein the upper end is adapted to cover the nose and the lower end is adapted to cover the mouth of a patient, wherein the mask assembly comprises: a frame defining a breathing chamber adapted to receive the patient's nose and mouth and provide air communication to the patient; a shroud provided to the frame, wherein the shroud is adapted to attach headgear and has a top end adapted to be positioned proximal to the nasal bridge region or nose of the patient and a bottom end adapted to be positioned proximal to the mouth or chin of the patient; and a full-face cushion provided to the frame and adapted to engage and form a seal with the patient's face generally along nasal bridge, cheek, and lower lip and/or chin regions of the patient's face in use; wherein the mask assembly includes no forehead support and the shroud includes two headgear connectors attached to the top end of the shroud on opposed sides of the shroud , characterised in that each headgear connector includes a stiffened member being an elongated arm having a free end adapted to attach a respective headgear strap, and in that the stiffened members include a general curved shape and extend around the face of the patient in a generally concave angle below the eyes of the patient so as to avoid covering the patient's field of vision. a frame defining a breathing chamber adapted to receive the patient's nose and mouth and provide air communication to the patient; a shroud provided to the frame, wherein the shroud is adapted to attach headgear and has a top end adapted to be positioned proximal to the nasal bridge region or nose of the patient and a bottom end adapted to be positioned proximal to the mouth or chin of the patient; and a full-face cushion provided to the frame and adapted to engage and form a seal with the patient's face generally along nasal bridge, cheek, and lower lip and/or chin regions of the patient's face in use; wherein the mask assembly includes no forehead support and the shroud includes two headgear connectors attached to the top end of the shroud on opposed sides of the shroud , characterised in that each headgear connector includes a stiffened member being an elongated arm having a free end adapted to attach a respective headgear strap, and in that the stiffened members include a general curved shape and extend around the face of the patient in a generally concave angle below the eyes of the patient so as to avoid covering the patient's field of vision.
A method for use in a marine seismic survey, comprising: deploying a receiver array in which a plurality of receiver nodes are spaced on the water bottom ≥ 400 meters (m) apart with at least one source-receiver offset of ≥ 15 km; towing a seismic source at a depth ≥ 30m along a plurality of shot lines spaced apart ≥ 400m; and imparting a plurality of low-frequency seismic signals having a frequency < 4 Hz from the seismic source as the seismic source is towed along the shot lines . deploying a receiver array in which a plurality of receiver nodes are spaced on the water bottom ≥ 400 meters (m) apart with at least one source-receiver offset of ≥ 15 km; towing a seismic source at a depth ≥ 30m along a plurality of shot lines spaced apart ≥ 400m; and imparting a plurality of low-frequency seismic signals having a frequency < 4 Hz from the seismic source as the seismic source is towed along the shot lines .
Image processing system, comprising: - an input port (IN) for receiving i) image data comprising a range of intensity values converted from signals acquired by an imaging apparatus in respect of an imaged object, and ii) a definition of a first transfer function configured to map a data interval within said range of said intensity values to an image interval of image values; - a transition region identifier (TRI) configured to identify from among intensity values outside said data interval, referred to herein as outside intensity values, one or more transition intensity values representative of a transition in composition and/or configuration of said object or of a transition in respect of a physical property in relation to said object; - a transfer function generator (TFG) configured to generate for said outside intensity values, at least one second transfer function, said at least one second transfer function being non-linear and having a respective locally maximum gradient at or around the one or more transition intensity values and - a renderer (RD) configured to render, on a display unit (MT), a visualization of at least a part of said image data based on the at least two transfer functions. - an input port (IN) for receiving i) image data comprising a range of intensity values converted from signals acquired by an imaging apparatus in respect of an imaged object, and ii) a definition of a first transfer function configured to map a data interval within said range of said intensity values to an image interval of image values; - a transition region identifier (TRI) configured to identify from among intensity values outside said data interval, referred to herein as outside intensity values, one or more transition intensity values representative of a transition in composition and/or configuration of said object or of a transition in respect of a physical property in relation to said object; - a transfer function generator (TFG) configured to generate for said outside intensity values, at least one second transfer function, said at least one second transfer function being non-linear and having a respective locally maximum gradient at or around the one or more transition intensity values and - a renderer (RD) configured to render, on a display unit (MT), a visualization of at least a part of said image data based on the at least two transfer functions.
A system for enhancing sensor operation, the system comprising: a primary sensor configured to obtain primary sensor data associated with an electrical mechanical system; and at least one secondary sensor configured to obtain secondary sensor data associated with the electrical mechanical system; characterised in that primary sensor data obtained by the primary sensor is analyzed in response to a predetermined state of the electrical mechanical system being detected in secondary sensor data obtained by the secondary sensor . a primary sensor configured to obtain primary sensor data associated with an electrical mechanical system; and at least one secondary sensor configured to obtain secondary sensor data associated with the electrical mechanical system; characterised in that primary sensor data obtained by the primary sensor is analyzed in response to a predetermined state of the electrical mechanical system being detected in secondary sensor data obtained by the secondary sensor .
A vehicle comprising; a chassis, at least one wheel , and a hub carrier on which the wheel is mounted, a suspension connecting the hub carrier to the chassis, and including a plurality of first links extending towards the chassis in at least one of an inward or an upward direction, and at least one second link extending towards the chassis in a longitudinal direction; characterised in that a crushable structure is attached to the chassis at a location aligned with a path of the wheel under impact after collapse of the longitudinally extending link and wherein the at least one wheel and longitudinal suspension link are collapsible such that the impact energy is absorbed by a combination of collapse of the wheel, the crushable structure and the longitudinal suspension link.
Building structure, in particular load-bearing or supporting framework , comprising: at least one connecting part , at least one bar , the bar having two profiles , in particular U-profiles, a connecting region of the connecting part being arranged between the two profiles of the bar , the bar being connected to the connecting part by means of a bolt connector , characterised in that the bolt connector comprises a base plate and a plurality of bolts which are attached to the base plate , the bolt connector connecting the two profiles of the bar to the connecting region of the connecting part . at least one connecting part , at least one bar , the bar having two profiles , in particular U-profiles, a connecting region of the connecting part being arranged between the two profiles of the bar , the bar being connected to the connecting part by means of a bolt connector , characterised in that the bolt connector comprises a base plate and a plurality of bolts which are attached to the base plate , the bolt connector connecting the two profiles of the bar to the connecting region of the connecting part .
A method for making a fluid ejection apparatus , comprising: mounting a printhead die having a first surface including at least one drop ejector in an opening of a first printed circuit board layer set ; coupling a second printed circuit board layer set to the first printed circuit board layer set to cover a second surface, opposite the first surface, of the printhead die ; thereafter, plunge-cutting a fluid feed slot through the second printed circuit board layer set and into the second surface of the printhead die such that fluid may flow through the fluid feed slot to the printhead die ; and coupling a conductor of the first printed circuit board layer set to a conductor of the printhead die . mounting a printhead die having a first surface including at least one drop ejector in an opening of a first printed circuit board layer set ; coupling a second printed circuit board layer set to the first printed circuit board layer set to cover a second surface, opposite the first surface, of the printhead die ; thereafter, plunge-cutting a fluid feed slot through the second printed circuit board layer set and into the second surface of the printhead die such that fluid may flow through the fluid feed slot to the printhead die ; and coupling a conductor of the first printed circuit board layer set to a conductor of the printhead die .
A control method for performing wireless charging in a wireless power receiver , the control method comprising: receiving power from a wireless power transmitter ; establishing a communication connection with the wireless power transmitter while receiving the power; performing communication with the wireless power transmitter; characterised by : detecting transition of the wireless power receiver from a Stand Alone, SA, mode to a Non Stand Alone, NSA, mode, the SA mode being a mode in which a stack of the predetermined communication scheme is retrieved from read-only memory, ROM, for the use of a communication unit and the NSA mode being a mode in which the stack of the predetermined communication scheme is retrieved from an application processor, AP, of the wireless power receiver for the use of the communication unit, the AP being inoperative when a battery is discharged; upon detecting the mode transition, generating a message including address information used to re-connect with the wireless power transmitter; and transmitting the message to the wireless power transmitter. receiving power from a wireless power transmitter ; establishing a communication connection with the wireless power transmitter while receiving the power; performing communication with the wireless power transmitter; characterised by : detecting transition of the wireless power receiver from a Stand Alone, SA, mode to a Non Stand Alone, NSA, mode, the SA mode being a mode in which a stack of the predetermined communication scheme is retrieved from read-only memory, ROM, for the use of a communication unit and the NSA mode being a mode in which the stack of the predetermined communication scheme is retrieved from an application processor, AP, of the wireless power receiver for the use of the communication unit, the AP being inoperative when a battery is discharged; upon detecting the mode transition, generating a message including address information used to re-connect with the wireless power transmitter; and transmitting the message to the wireless power transmitter. detecting transition of the wireless power receiver from a Stand Alone, SA, mode to a Non Stand Alone, NSA, mode, the SA mode being a mode in which a stack of the predetermined communication scheme is retrieved from read-only memory, ROM, for the use of a communication unit and the NSA mode being a mode in which the stack of the predetermined communication scheme is retrieved from an application processor, AP, of the wireless power receiver for the use of the communication unit, the AP being inoperative when a battery is discharged; upon detecting the mode transition, generating a message including address information used to re-connect with the wireless power transmitter; and transmitting the message to the wireless power transmitter.
A recombinant pre-fusion respiratory syncitial virus (RSV) Fusion (F) polypeptide, wherein the polypeptide comprises at least two stabilizing mutations in the F1 and/or F2 domain as compared to the RSV F1 and/or F2 domain in a wild-type RSV F protein, wherein at least one of the stabilizing mutations is a mutation of amino acid residue L on position 203 into I and wherein the polypeptide further comprises a mutation of amino acid residue S on position 215, preferably a mutation of the amino acid residue S on position 215 into P, and wherein the amino acid positions are given in reference to the sequence of RSV F protein from the A2 strain (SEQ ID NO: 13).