mhurhangee/ep-ind-claims huggingface dataset:
A camera module comprising: a main body having a spherical shape and including a camera; a first arm connected to the main body and including a first motor configured to rotate the main body; a second arm connected to the first arm and including a second motor configured to rotate the first arm; a fixing member connected to the second arm and including a third motor for rotating the second arm; and a controller configured to: independently rotate the main body, the first arm and the second arm to allow omnidirectional capturing in a three-dimensional space where the camera is placed, and to rotate the first arm and the second arm between a first state of being overlaid by each other and a second state of intersecting with each other, in response to a user request being input for changing a state of the camera module, wherein, in the first state, a rotation shaft of the first motor and a rotation shaft of the third motor are arranged on a same line within the three-dimensional space. a main body having a spherical shape and including a camera; a first arm connected to the main body and including a first motor configured to rotate the main body; a second arm connected to the first arm and including a second motor configured to rotate the first arm; a fixing member connected to the second arm and including a third motor for rotating the second arm; and a controller configured to: independently rotate the main body, the first arm and the second arm to allow omnidirectional capturing in a three-dimensional space where the camera is placed, and to rotate the first arm and the second arm between a first state of being overlaid by each other and a second state of intersecting with each other, in response to a user request being input for changing a state of the camera module, wherein, in the first state, a rotation shaft of the first motor and a rotation shaft of the third motor are arranged on a same line within the three-dimensional space. independently rotate the main body, the first arm and the second arm to allow omnidirectional capturing in a three-dimensional space where the camera is placed, and to rotate the first arm and the second arm between a first state of being overlaid by each other and a second state of intersecting with each other, in response to a user request being input for changing a state of the camera module, wherein, in the first state, a rotation shaft of the first motor and a rotation shaft of the third motor are arranged on a same line within the three-dimensional space.
A method for wireless communication, comprising: identifying, at a user equipment, UE, that is configured to transmit a message to a first neighboring UE of one or more neighboring UEs via multiple formats, a service identifier of a safety message and indicative of a format to be used for the message, the multiple formats comprising formats of different radio access technologies, RATs, wherein a first format of the multiple formats comprises a legacy format with respect to a second format of the multiple formats; conveying, information indicating the service identifier from a first layer of the UE to a second layer of the UE, wherein the first layer is an upper layer with respect to the second layer; receiving one or more messages from the one or more neighboring UEs; decoding, for each received message based on the service identifier being of a safety message, a scheduling assignment or a header portion of the message to determine that all the neighboring UEs support communications using the second format; selecting the second format for communications with the neighboring UE when all the neighboring UEs support communications using the second format; and generating, by the second layer based on the selecting, the message in the second format for communicating with the first neighboring UE of the one or more neighboring UEs. identifying, at a user equipment, UE, that is configured to transmit a message to a first neighboring UE of one or more neighboring UEs via multiple formats, a service identifier of a safety message and indicative of a format to be used for the message, the multiple formats comprising formats of different radio access technologies, RATs, wherein a first format of the multiple formats comprises a legacy format with respect to a second format of the multiple formats; conveying, information indicating the service identifier from a first layer of the UE to a second layer of the UE, wherein the first layer is an upper layer with respect to the second layer; receiving one or more messages from the one or more neighboring UEs; decoding, for each received message based on the service identifier being of a safety message, a scheduling assignment or a header portion of the message to determine that all the neighboring UEs support communications using the second format; selecting the second format for communications with the neighboring UE when all the neighboring UEs support communications using the second format; and generating, by the second layer based on the selecting, the message in the second format for communicating with the first neighboring UE of the one or more neighboring UEs.
An imaging system for a motor vehicle, comprising - a camera mounting part, at least one camera module to be mounted to said camera mounting part and a retainer ring, wherein - the camera module is provided with at least one radially outwardly directed protrusions, characterized in that - the retainer ring has multiple elastically deformable spring tongues, and - the spring tongues are arranged at an inner diameter of a basis ring of said retainer ring, - the retainer ring is attachable by pushing it over the at least one protrusions under elastic deformation of the spring tongues to an attachment position, wherein - said spring tongues clamp the camera module radially in the attachment position, wherein - the tips of at least three spring tongues axially adjoin a surface of the at least one protrusion in the attachment position, and wherein - the retainer ring has multiple spring elements applying an axially spring force from said camera mounting part to the tips of the at least three spring tongues in the attachment position, - the spring elements are arranged at an outer diameter of the basis ring. - a camera mounting part, at least one camera module to be mounted to said camera mounting part and a retainer ring, wherein - the camera module is provided with at least one radially outwardly directed protrusions, characterized in that - the retainer ring has multiple elastically deformable spring tongues, and - the spring tongues are arranged at an inner diameter of a basis ring of said retainer ring, - the retainer ring is attachable by pushing it over the at least one protrusions under elastic deformation of the spring tongues to an attachment position, wherein - said spring tongues clamp the camera module radially in the attachment position, wherein - the tips of at least three spring tongues axially adjoin a surface of the at least one protrusion in the attachment position, and wherein - the retainer ring has multiple spring elements applying an axially spring force from said camera mounting part to the tips of the at least three spring tongues in the attachment position, - the spring elements are arranged at an outer diameter of the basis ring.
A ferroelectric thin film, comprising: a film of a dielectric material having a perovskite structure formed on a base body, wherein the dielectric material is made of a composite oxide obtained by adding, as an additive, a metal material other than Pb, Zr, and Ti to PZT, the thin film includes layers different in Zr/Ti ratio, which are a first layer that has a small compounding percentage of Zr and is formed on the base body and a second layer that has a large compounding percentage of Zr and is formed on the first layer, and characterized in that the first and second layers are each a PZT film containing La at a compounding concentration of 7% to 8%. a film of a dielectric material having a perovskite structure formed on a base body, wherein the dielectric material is made of a composite oxide obtained by adding, as an additive, a metal material other than Pb, Zr, and Ti to PZT, the thin film includes layers different in Zr/Ti ratio, which are a first layer that has a small compounding percentage of Zr and is formed on the base body and a second layer that has a large compounding percentage of Zr and is formed on the first layer, and
A wireless communications device, comprising: means for receiving a plurality of stream packets on a logical channel broadcast in a super-frame; means for acquiring the logical channel during the broadcast of the super-frame in response to a prompt received during the broadcast of the same super-frame, wherein the prompt comprises a selection for a new service, the new service being broadcast on the logical channel, wherein one of the stream packets contains signaling that is used to acquire the logical channel, wherein the signaling includes a decryption key for the other stream packets on the logical channel, wherein the super-frame is accompanied by composite overhead information broadcast at the start of each super-frame and indicating the specific location of each media logical channel within the super-frame, and means for reading the composite overhead information and using the composite overhead information to acquire the logical channel, wherein the means for reading the composite overhead information read the composite overhead information in response to a trigger that precedes the prompt, wherein the trigger occurs when browsing in a real-time service menu in a media program guide is carried out; and means for obtaining signaling from the stream packet containing signaling, wherein said stream packet is broadcast after the other stream packets on the logical channel. means for receiving a plurality of stream packets on a logical channel broadcast in a super-frame; means for acquiring the logical channel during the broadcast of the super-frame in response to a prompt received during the broadcast of the same super-frame, wherein the prompt comprises a selection for a new service, the new service being broadcast on the logical channel, wherein one of the stream packets contains signaling that is used to acquire the logical channel, wherein the signaling includes a decryption key for the other stream packets on the logical channel, wherein the super-frame is accompanied by composite overhead information broadcast at the start of each super-frame and indicating the specific location of each media logical channel within the super-frame, and means for reading the composite overhead information and using the composite overhead information to acquire the logical channel, wherein the means for reading the composite overhead information read the composite overhead information in response to a trigger that precedes the prompt, wherein the trigger occurs when browsing in a real-time service menu in a media program guide is carried out; and means for obtaining signaling from the stream packet containing signaling, wherein said stream packet is broadcast after the other stream packets on the logical channel.
A surface inspection apparatus that comprises: a light source that emits inspection light; an inspection head configured to be inserted inside a cylindrical body, which is an inspection object, so that, while rotating around an axis of the cylindrical body and moving in the axial directions, said inspection head projects the inspection light emitted from the light source to an inner circumferential surface of the cylindrical body and receives the light reflected thereby; and a photoelectric converting means that outputs a signal in accordance with the intensity of the reflected light received by the inspection head; and that generates a two dimensional image that corresponds to the inner circumferential surface based on the signal output by the photoelectric converting means; the apparatus further comprising: a signal processing means configured to extract frequency components, which correspond to fluctuations in the intensity of the reflected light caused by a deviation between an axis (AXa) of the inspection head and a center line of the cylindrical body, from the signal output by the photoelectric converting means; and a light source controlling means configured to control the light source so that the intensity of the inspection light emitted from the light source varies with the differential between a prescribed reference value and the frequency components extracted by the signal processing means, wherein the differential is a differential signal (Sd) output from a comparator that compares the frequency components extracted by the signal processing means and the prescribed reference value of a reference signal (St), wherein the signal processing means is configured so that it extracts frequency components within a prescribed range that includes frequency components that correspond to the fluctuations and does not include frequency components that correspond to a defect of the inner circumferential surface. a signal processing means configured to extract frequency components, which correspond to fluctuations in the intensity of the reflected light caused by a deviation between an axis (AXa) of the inspection head and a center line of the cylindrical body, from the signal output by the photoelectric converting means; and a light source controlling means configured to control the light source so that the intensity of the inspection light emitted from the light source varies with the differential between a prescribed reference value and the frequency components extracted by the signal processing means, wherein the differential is a differential signal (Sd) output from a comparator that compares the frequency components extracted by the signal processing means and the prescribed reference value of a reference signal (St), wherein the signal processing means is configured so that it extracts frequency components within a prescribed range that includes frequency components that correspond to the fluctuations and does not include frequency components that correspond to a defect of the inner circumferential surface.
A modified polyhedral polysiloxane, which is a hydrosilylation product of an alkenyl group-containing polyhedral polysiloxane compound (a) and a hydrosilyl group-containing compound (b), and has a structure derived from an organic silicon compound (a') having one alkenyl group per molecule and having at least one aryl group, wherein the alkenyl group-containing polyhedral polysiloxane compound (a) is an alkenyl group-containing polyhedral polysiloxane compound comprising a siloxane unit represented by the formula: [AR 1 2 SiO-SiO 3/2] a [R 2 3 SiO-SiO 3/2] b wherein a+b is an integer of 6 to 24, provided that a is an integer of 1 or larger and b is an integer of 0 or 1 or larger; A is alkenyl; R 1 is alkyl or aryl; and R 2 is hydrogen, alkyl, aryl or a group bonded to another polyhedral polysiloxane, and wherein the hydrosilyl group-containing compound (b) is at least one of a hydrosilyl group-containing cyclic siloxane and a hydrosilyl group-containing linear siloxane.
A blender comprising: a container body having a space for receiving food therein; and a main body configured to receive the container body and to support the container body, wherein the main body comprises a casing; wherein the main body comprises: a discharge system configured to discharge static electricity generated in an inside of the main body and/or in the casing of the main body; wherein the discharge system comprises a discharge member electrically connecting at least two portions of the main body to each other and/or electrically connecting at least two portions of the casing to each other; and wherein the main body comprises: a seating step at a surface of casing of the main body, the seating step configured to receive the container body such that the container body is mounted thereon and removable therefrom, the blender being characterized in that: the discharge member connects the seating step and the casing to each other. a container body having a space for receiving food therein; and a main body configured to receive the container body and to support the container body, wherein the main body comprises a casing; wherein the main body comprises: a discharge system configured to discharge static electricity generated in an inside of the main body and/or in the casing of the main body; wherein the discharge system comprises a discharge member electrically connecting at least two portions of the main body to each other and/or electrically connecting at least two portions of the casing to each other; and wherein the main body comprises: a seating step at a surface of casing of the main body, the seating step configured to receive the container body such that the container body is mounted thereon and removable therefrom, the blender being characterized in that: the discharge member connects the seating step and the casing to each other. a discharge system configured to discharge static electricity generated in an inside of the main body and/or in the casing of the main body; wherein the discharge system comprises a discharge member electrically connecting at least two portions of the main body to each other and/or electrically connecting at least two portions of the casing to each other; and wherein the main body comprises: a seating step at a surface of casing of the main body, the seating step configured to receive the container body such that the container body is mounted thereon and removable therefrom, the blender being characterized in that: the discharge member connects the seating step and the casing to each other.
Method for resampling an audio frequency signal at an output sampling frequency, for a current signal frame, where the preceding frame is sampled at a first sampling frequency different from a second sampling frequency of the current frame, characterized in that the method comprises the following steps: - determination of a first signal segment by addition of a first predetermined number of samples at zero at the end of stored samples of the preceding frame; - obtaining of the first resampled segment by application to the first segment of at least one resampling filter resampling from the first frequency to the output frequency; - determination of a second signal segment by addition of a second predetermined number of samples at zero at the start of samples of the current frame; - obtaining of the second resampled segment by application to the second segment of at least one resampling filter resampling from the second frequency to the output frequency; - combination of the overlapping part of the first and second resampled segments to obtain at least a part of the current resampled frame. - determination of a first signal segment by addition of a first predetermined number of samples at zero at the end of stored samples of the preceding frame; - obtaining of the first resampled segment by application to the first segment of at least one resampling filter resampling from the first frequency to the output frequency; - determination of a second signal segment by addition of a second predetermined number of samples at zero at the start of samples of the current frame; - obtaining of the second resampled segment by application to the second segment of at least one resampling filter resampling from the second frequency to the output frequency; - combination of the overlapping part of the first and second resampled segments to obtain at least a part of the current resampled frame.
A reference signal sending method performed by a reference signal sending apparatus, the method comprising: • determining a time-frequency resource used to carry a first reference signal, wherein the first reference signal is a channel state information-reference signal, CSI-RS, and a second reference signal is a demodulation reference signal, DMRS, (step 301) wherein the determined time-frequency resource is: o dedicated for carrying thesecond reference signal, but is currently an unused time-frequence resource; and • sending the first reference signal by using the determined time-frequency resource, thereby using the unused time-frequency resource for sending the first reference signal (step 302). • determining a time-frequency resource used to carry a first reference signal, wherein the first reference signal is a channel state information-reference signal, CSI-RS, and a second reference signal is a demodulation reference signal, DMRS, (step 301) wherein the determined time-frequency resource is: o dedicated for carrying thesecond reference signal, but is currently an unused time-frequence resource; and • sending the first reference signal by using the determined time-frequency resource, thereby using the unused time-frequency resource for sending the first reference signal (step 302).
A method for controlling unlocking, comprising: acquiring the number of feature points in a current feature point set of a user finger, the current feature point set being formed by scanning and processing the user finger through a sensing electrode set, the sensing electrode set comprising sensing electrodes from the [M/2]-k11th to the [M/2]+k12th row in a sensing electrode array of M-rows by N-columns, the sensing electrode array being arranged in a fingerprint identification sensor of a terminal, and M, N, k11, and kl2 being positive integers; unlocking the terminal when the number of the feature points in the current feature point set is greater than or equal to a first preset threshold and the current feature point set matches with a pre-saved fingerprint template; and adding X-rows of sensing electrodes to the current sensing electrode set so as to update the current feature point set when the number of the feature points in the current feature point set is smaller than the first preset threshold, the X lines comprising X1 adjacent lines before the [M/2]-k11 line and X2 adjacent lines after the [M/2]+k12, and X1, X2, X being positive integers, and X=X1+X2. acquiring the number of feature points in a current feature point set of a user finger, the current feature point set being formed by scanning and processing the user finger through a sensing electrode set, the sensing electrode set comprising sensing electrodes from the [M/2]-k11th to the [M/2]+k12th row in a sensing electrode array of M-rows by N-columns, the sensing electrode array being arranged in a fingerprint identification sensor of a terminal, and M, N, k11, and kl2 being positive integers; unlocking the terminal when the number of the feature points in the current feature point set is greater than or equal to a first preset threshold and the current feature point set matches with a pre-saved fingerprint template; and adding X-rows of sensing electrodes to the current sensing electrode set so as to update the current feature point set when the number of the feature points in the current feature point set is smaller than the first preset threshold, the X lines comprising X1 adjacent lines before the [M/2]-k11 line and X2 adjacent lines after the [M/2]+k12, and X1, X2, X being positive integers, and X=X1+X2.