mhurhangee/patent-ind-claim-en huggingface dataset:
A method for communication in an unlicensed wireless communication system comprising: controlling a receiver at a user equipment to attempt to receive a reference signal for cell discovery and/or cell signal measurement, wherein transmission of the reference signal is subject to a listen-before-talk type protocol and the reference signal is expected to be transmitted at a determined power level within a configured reference signal transmission window in time with instances of the reference signal transmission window separated by a first time interval and the receiver is controlled to be able to receive the reference signal at a reference signal measurement time, with instances of the reference signal measurement time separated by a second time interval; determining at the receiver at least one missing reference signal instance within a reference signal transmission window during the reference signal measurement time; controlling the receiver to be able to receive at least one further reference signal instance at a further reference signal measurement time, the separation of the further reference signal measurement time and the reference signal measurement time being less than the second time interval. controlling a receiver at a user equipment to attempt to receive a reference signal for cell discovery and/or cell signal measurement, wherein transmission of the reference signal is subject to a listen-before-talk type protocol and the reference signal is expected to be transmitted at a determined power level within a configured reference signal transmission window in time with instances of the reference signal transmission window separated by a first time interval and the receiver is controlled to be able to receive the reference signal at a reference signal measurement time, with instances of the reference signal measurement time separated by a second time interval; determining at the receiver at least one missing reference signal instance within a reference signal transmission window during the reference signal measurement time; controlling the receiver to be able to receive at least one further reference signal instance at a further reference signal measurement time, the separation of the further reference signal measurement time and the reference signal measurement time being less than the second time interval.
A method for controlling a lifting device which moves a load along a first movement direction (X) and along a second movement direction (Y) within a specified working area of the lifting device in accordance with a specified trajectory (T) from a starting point (A) to an end point (E), characterized in that, at a command time point (t k ) during the movement of the load , a new obstacle for the movement of the load , which obstacle is arranged between the position (Pz) taken on by the load at the command time point (t k ) and the end point (E), is specified, and/or an existing obstacle , which is arranged between the position (Pz) taken on by the load at the command time point (t k ) and the end point (E), is changed to a new obstacle for the movement of the load , in that, taking into account specified kinematic constraints of the lifting device , at least one individual movement (TE X , TE Y ) is planned for the first movement direction (X) and for the second movement direction (Y) respectively, which individual movement determines the further movement of the load along the respective movement direction (X, Y) from the command time point (t k ) onwards, wherein at least one individual movement (TE X , TE Y ) for each movement direction (X, Y) ends in a projection (E', E") of the end point (E) onto the respective movement direction (X, Y), and in that the planned individual movements (TE X , TE Y ) are executed in accordance with a specified movement sequence in order to move the load further along the first movement direction (X) and further along the second movement direction (Y) in accordance with a replanning trajectory (TU) resulting from the movement sequence of the planned individual movements (TE X , TE Y ) without colliding with the new obstacle .
Device for the treatment of esophageal stenoses, comprising at least a body of elongated shape intended to be inserted within the esophagus of a patient, and at least a tubular sheath mounted around said body to define an interspace between said body and said tubular sheath , at least a stiffening element accommodated in said interspace and comprising a plurality of ribs which extend along said interspace , characterized in that it comprises at least two connection elements for connecting said tubular sheath to said body , associated with the axial ends to said tubular sheath and shaped so as to taper the outer surface of said tubular sheath to the outer surface of said body .
A method of wireless communication by a base station, comprising: reserving a first region of a set of resources to a first user for at least a first uplink transmission related to a first type of service, wherein the reserved first region of the set resources is dedicated to the first type of service; receiving the first uplink transmission in the first region; dynamically assigning resources in a non-reserved second region of the set of resources for at least a second uplink transmission related to the first type of service; and receiving the second uplink transmission in the second region based on the assignment. reserving a first region of a set of resources to a first user for at least a first uplink transmission related to a first type of service, wherein the reserved first region of the set resources is dedicated to the first type of service; receiving the first uplink transmission in the first region; dynamically assigning resources in a non-reserved second region of the set of resources for at least a second uplink transmission related to the first type of service; and receiving the second uplink transmission in the second region based on the assignment.
A connector for verifying a connected state between the connector and a counterpart , comprising: a housing including an insertion hole for inserting the counterpart ; a locking member attached to the housing and adapted to be driven from an initial position to a locked position by the counterpart inserted into the insertion hole , said locking member being adapted to undetachably fix the counterpart at the locked position; and an identifying member provided in the housing and having a connection completion display part for displaying completion of connection between the connector and the counterpart , wherein the locking member shields the connection completion display part at the initial position, and exposes the connection completion display part at the locked position, characterized in that the housing includes a first display opening that exposes the connection completion display part , and the locking member includes a second display opening that does not overlap the first display opening at the initial position and overlaps the first display opening at the locked position. a housing including an insertion hole for inserting the counterpart ; a locking member attached to the housing and adapted to be driven from an initial position to a locked position by the counterpart inserted into the insertion hole , said locking member being adapted to undetachably fix the counterpart at the locked position; and an identifying member provided in the housing and having a connection completion display part for displaying completion of connection between the connector and the counterpart , wherein the locking member shields the connection completion display part at the initial position, and exposes the connection completion display part at the locked position, characterized in that the housing includes a first display opening that exposes the connection completion display part , and the locking member includes a second display opening that does not overlap the first display opening at the initial position and overlaps the first display opening at the locked position.
A method performed at a receiver device, the method comprising: receiving (S202), at the receiver device, a first message transmitted (S201) from a sender, the first message being identified by a first message identifier; and displaying (S203), at the receiver device, content of the first message; characterized in that the first message is received in a read-only mode, the read-only mode being a mode in which the message may only be displayed without being stored or modified, and in that the method further comprises: receiving (S206), at the receiver device, a second message from the sender (S205) in response to the sender clearing (S204) the content of the first message, the second message being identified by a second message identifier and comprising null content, wherein the first message identifier is the same as the second message identifier; and displaying (S207), as an update, at the receiver device, the null content of the second message in place of the content of the first message. receiving (S202), at the receiver device, a first message transmitted (S201) from a sender, the first message being identified by a first message identifier; and displaying (S203), at the receiver device, content of the first message; characterized in that the first message is received in a read-only mode, the read-only mode being a mode in which the message may only be displayed without being stored or modified, and in that the method further comprises: receiving (S206), at the receiver device, a second message from the sender (S205) in response to the sender clearing (S204) the content of the first message, the second message being identified by a second message identifier and comprising null content, wherein the first message identifier is the same as the second message identifier; and displaying (S207), as an update, at the receiver device, the null content of the second message in place of the content of the first message. receiving (S206), at the receiver device, a second message from the sender (S205) in response to the sender clearing (S204) the content of the first message, the second message being identified by a second message identifier and comprising null content, wherein the first message identifier is the same as the second message identifier; and displaying (S207), as an update, at the receiver device, the null content of the second message in place of the content of the first message.
An image forming apparatus , comprising: an image forming unit configured to perform an image output according to input image data; a gradation correction unit configured to correct a gradation value of the input image data using a gradation correction table; a target maximum density storage unit configured to store a target maximum density that is set in advance for the input image data; a gradation correction table correction unit configured to correct the gradation correction table based on maximum density information of a gradation correction chart that is output by the image forming unit and the target maximum density; a data storage unit configured to store the maximum density information and environmental information each time of acquisition of the maximum density information; a maximum density prediction unit configured to, when the image forming unit is to output the gradation correction chart, predict a maximum density of an image formed by the image forming unit based on the maximum density information associated with particular environmental information among the environmental information stored in the data storage unit, the particular environmental information being within a predetermined range with reference to current environmental information; and a maximum density adjustment unit configured to adjust the maximum density of the image formed by the image forming unit in a case that the predicted maximum density is lower than the target maximum density. an image forming unit configured to perform an image output according to input image data; a gradation correction unit configured to correct a gradation value of the input image data using a gradation correction table; a target maximum density storage unit configured to store a target maximum density that is set in advance for the input image data; a gradation correction table correction unit configured to correct the gradation correction table based on maximum density information of a gradation correction chart that is output by the image forming unit and the target maximum density; a data storage unit configured to store the maximum density information and environmental information each time of acquisition of the maximum density information; a maximum density prediction unit configured to, when the image forming unit is to output the gradation correction chart, predict a maximum density of an image formed by the image forming unit based on the maximum density information associated with particular environmental information among the environmental information stored in the data storage unit, the particular environmental information being within a predetermined range with reference to current environmental information; and a maximum density adjustment unit configured to adjust the maximum density of the image formed by the image forming unit in a case that the predicted maximum density is lower than the target maximum density.
A method of transmitting a frame by a station, STA, in a wireless local area network, LAN, system supporting transmission of a high efficiency physical layer protocol data unit, HE PPDU, the method comprising: setting (S2605) a first duration field included in a HE signal A, HE-SIG A, field; and transmitting (S2610) the frame including the HE-SIG A field and a media access control, MAC, header, wherein the first duration field is related to a transmission opportunity, TXOP, duration value, wherein the first duration field comprises a plurality of bits, wherein a number of the plurality of the bits is smaller than a number of bits of a second duration field included in the MAC header, wherein a front part of the plurality of the bits comprises information on whether a granularity of the TXOP duration value is 'A' micro-second or 'B' micro-second, wherein 'A' and 'B' are predetermined integers greater than 1, respectively, and wherein a granularity related to the second duration field is different from the granularity of the TXOP duration value. setting (S2605) a first duration field included in a HE signal A, HE-SIG A, field; and transmitting (S2610) the frame including the HE-SIG A field and a media access control, MAC, header, wherein the first duration field is related to a transmission opportunity, TXOP, duration value, wherein the first duration field comprises a plurality of bits, wherein a number of the plurality of the bits is smaller than a number of bits of a second duration field included in the MAC header, wherein a front part of the plurality of the bits comprises information on whether a granularity of the TXOP duration value is 'A' micro-second or 'B' micro-second, wherein 'A' and 'B' are predetermined integers greater than 1, respectively, and wherein a granularity related to the second duration field is different from the granularity of the TXOP duration value.
Method for encoding an analog input signal into time intervals by means of a time encoding machine, wherein the width of time intervals generated at an output of the time encoding machine represents values of the analog input signal, characterized in that during the generation of a time interval a sample of the input signal is held at the input of the time encoding machine (TEM) by means of a sample-and-hold circuit (SH), wherein the time interval represents an instantaneous value of the analog input signal sampled during the generation of a previous time interval, wherein the end of the time interval generated at the output of the time encoding machine (TEM) triggers a control signal that causes a next sample of the analog input signal to be captured and held by the sample-and-hold circuit (SH), the next sample representing a new instantaneous value of the analog input signal.
A system that utilizes a vehicle surveillance network including a plurality of vehicles , the system comprising: at least one vehicle computer in a first vehicle being configured to: receive a first message indicative of a location of a dwelling from a roadside unit that is positioned on the dwelling ; transmit instructions to at least one vehicle camera in the first vehicle to capture one or more video images corresponding to a security threat at the dwelling ; and transmit video and video analytics corresponding to the security threat at the dwelling to at least one specific vehicle in the surveillance network. receive a first message indicative of a location of a dwelling from a roadside unit that is positioned on the dwelling ; transmit instructions to at least one vehicle camera in the first vehicle to capture one or more video images corresponding to a security threat at the dwelling ; and transmit video and video analytics corresponding to the security threat at the dwelling to at least one specific vehicle in the surveillance network.
Method to determine the mass of particles (P) collected on a collection membrane having a first surface and a second surface , whereby the particles (P) to be analysed are deposited on the first surface , wherein in a first step the particles (P) of the first surface are scanned with a Raman spectrometer and a preliminary Raman signal (Rp) is collected, wherein in a second step at least one additional physical property of the particles (P) is determined, wherein the additional physical property is at least one optical property of the particles (P), said at least one optical property being an absorption property and/or a transmission property, wherein in a third step a correction factor (CF) is calculated based on the additional physical property, wherein in a fourth step a final Raman signal (Rf) is calculated based on the correction factor (CF) and the preliminary Raman signal (Rp), and wherein in a fifth step the actual mass of the particles (P) is determined based on the final Raman signal (Rf). wherein in a first step the particles (P) of the first surface are scanned with a Raman spectrometer and a preliminary Raman signal (Rp) is collected, wherein in a second step at least one additional physical property of the particles (P) is determined, wherein the additional physical property is at least one optical property of the particles (P), said at least one optical property being an absorption property and/or a transmission property, wherein in a third step a correction factor (CF) is calculated based on the additional physical property, wherein in a fourth step a final Raman signal (Rf) is calculated based on the correction factor (CF) and the preliminary Raman signal (Rp), and wherein in a fifth step the actual mass of the particles (P) is determined based on the final Raman signal (Rf).
A negative pressure assembly comprising: a drape for covering a dressing site on a patient and capable of maintaining a negative pressure underneath the drape when sealed against skin (S) upon application of a vacuum; a sealing element that when applied to the skin (S) cooperates with the drape to define an enclosed volume covered by the drape and surrounded by the sealing element ; a reactor located with respect to the drape and the sealing element so as to be in fluid communication with the enclosed volume when the drape is covering the dressing site , the reactor being configured to react with a selected gas found in air so as to consume the selected gas; and a mechanical pump assembly including a pump chamber fluidly connectable to the enclosed volume , and configured to draw air from the enclosed volume into the pump chamber when fluidly connected with the enclosed volume . a drape for covering a dressing site on a patient and capable of maintaining a negative pressure underneath the drape when sealed against skin (S) upon application of a vacuum; a sealing element that when applied to the skin (S) cooperates with the drape to define an enclosed volume covered by the drape and surrounded by the sealing element ; a reactor located with respect to the drape and the sealing element so as to be in fluid communication with the enclosed volume when the drape is covering the dressing site , the reactor being configured to react with a selected gas found in air so as to consume the selected gas; and a mechanical pump assembly including a pump chamber fluidly connectable to the enclosed volume , and configured to draw air from the enclosed volume into the pump chamber when fluidly connected with the enclosed volume .
A method of preparing a subsequent secured authentication of a physical object or group of physical objects (PO(s)) by a recipient (B, B') thereof, the method comprising: receiving or generating predicted context data (PCD) representing a predicted future location relating to a designated next recipient (B; B') of the physical object or group of physical objects (PO(s)) and a related future time of presence of the physical object or group of physical objects (PO(s)) at that future location; receiving or generating random context data (RCD) indicating a random location and a random time; combining , according to a first predetermined combination scheme, the predicted context data (PCD) and the random context data (RCD) to thereby derive modified context data (MCD) representing a modified random location and a modified random time, each resulting from the combining; encrypting the modified context data (MCD) to obtain a secured start data package (SSDP) representing the modified context data (MCD); and storing said secured start data package (SSDP), or causing it to be stored, to a first data storage (DS1) and providing the secured data package (SSDP) for a subsequent secured authentication of a physical object or group of physical objects (PO(s)). receiving or generating predicted context data (PCD) representing a predicted future location relating to a designated next recipient (B; B') of the physical object or group of physical objects (PO(s)) and a related future time of presence of the physical object or group of physical objects (PO(s)) at that future location; receiving or generating random context data (RCD) indicating a random location and a random time; combining , according to a first predetermined combination scheme, the predicted context data (PCD) and the random context data (RCD) to thereby derive modified context data (MCD) representing a modified random location and a modified random time, each resulting from the combining; encrypting the modified context data (MCD) to obtain a secured start data package (SSDP) representing the modified context data (MCD); and storing said secured start data package (SSDP), or causing it to be stored, to a first data storage (DS1) and providing the secured data package (SSDP) for a subsequent secured authentication of a physical object or group of physical objects (PO(s)).